JP2011169217A - Various energy conservation cycle combined engine - Google Patents

Various energy conservation cycle combined engine Download PDF

Info

Publication number
JP2011169217A
JP2011169217A JP2010033224A JP2010033224A JP2011169217A JP 2011169217 A JP2011169217 A JP 2011169217A JP 2010033224 A JP2010033224 A JP 2010033224A JP 2010033224 A JP2010033224 A JP 2010033224A JP 2011169217 A JP2011169217 A JP 2011169217A
Authority
JP
Japan
Prior art keywords
turbine
cold
gravity
heat
various
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP2010033224A
Other languages
Japanese (ja)
Inventor
Hiroyasu Tanigawa
浩保 谷川
Kazunaga Tanigawa
和永 谷川
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to JP2010033224A priority Critical patent/JP2011169217A/en
Publication of JP2011169217A publication Critical patent/JP2011169217A/en
Pending legal-status Critical Current

Links

Abstract

<P>PROBLEM TO BE SOLVED: To solve the problem that an existing steam turbine has power which is 1/36,000 or small of platinum ball power, brings stagnation output close to 0 by a half of a stationary blade and exposes humanity to a risk of extinction through the rise of seawater temperature by 7°C. <P>SOLUTION: In a various energy conservation cycle combined engine, for instance, by taking all moving blade gravity large substance gravity solar heat turbine drive, the maximum atmospheric constant-speed, constant-volume power is set to be almost 36,000 time platinum sphere power of an existing steam turbine. Air heated by sunlight is compressed to be high temperature with one and more stage heat pump so that individual air respectively heated by solar light is recovered through heating and compression thereof so as to be dividedly reserved and utilized in the increase of cold mass + limitlessly high pressure heat 50+ cold 28a. The extinction of humanity is prevented by the speedup of a natural phenomenon, the substantial increase of human food and prevention of the rise of seawater temperature by 7°C in the process of driving a generator and ship. When driving a solar thermal gravitational rotation aircraft, fuel injection combustion ultra-high pressure rocket injection is applied to heat + cool from the vicinity of the maximum flying altitude of existing aircraft. Cost of reaching space is minimized by aiming at no fuel cost flight in the atmosphere or the like. A same day trip to anywhere on Earth, travel in outer space or the like are fully achieved through the heyday of space flight. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

本発明は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、白金球重力タービン8G仕事率の1/3.6万と僅少に加えて、蒸気速度を堰止めて仕事皆無静翼を動翼と交互に半分具備して回転出力を0に近付け、発電熱量全部で海水温度を7度上昇海面全部温度上昇して自然現象を不可能にし、上限の無い異常気象を増大100年前後で人類絶滅に近付く危険が大きく、人類絶滅を阻止する技術として、全動翼タービン8G必須比重大物質重力タービン8G必須とし、大気圧同速度同容積仕事率を、既存蒸気タービン発電の3.6万倍白金球仕事率に近付けた、全動翼比重大物質重力太陽熱タービン8G発電等として、1段熱ポンプ1Gで太陽熱加熱の空気を圧縮高温とし、1段圧縮熱回収器2Cの空気熱交換器2Xで太陽光加熱の別空気28aで熱回収して、2〜複数段含め冷熱28a質量無限増大に挑戦し、2〜複数段熱ポンプ1Gで複数回圧縮して、2〜複数段圧縮熱回収器2Cで複数回1段同様に、水熱交換器2Yや比重大物質熱交換器2Zでも用途に合せて熱回収し、限り無く高圧の過熱蒸気50温熱+圧縮空気28a冷熱に分割保存し、各種用途に使用する各種エネルギ保存サイクルとして、全動翼比重大物質重力太陽熱タービン8G発電や船舶駆動の過程では自然現象を高速化し、海水に窒素や酸素やCO2等を冷熱や栄養分で供給して、人類の食料を大増大して海水温度上昇0CO2排気0の発電等にし、人類絶滅阻止する各種エネルギ保存サイクル合体機関技術に関する。 In the present invention, the existing best steam turbine power generation has the atmospheric pressure, the same speed, and the same volumetric power, kg weight m / sec. Work is equipped with half static blades alternately with moving blades, the rotational output approaches 0, the seawater temperature rises by 7 degrees with all the generated heat, the sea surface rises in temperature, and natural phenomena become impossible. There is a great risk of approaching the extinction of mankind in around 100 years, and as a technology to prevent the extinction of mankind, all-turbine turbine 8G essential ratio gravity material gravity turbine 8G is essential, and the atmospheric pressure, the same speed, and the same volumetric power are used. As the total moving blade ratio critical material gravity solar thermal turbine 8G power generation close to the 36,000 times platinum ball power of 1, the 1st stage heat pump 1G is used to heat the solar heating air to a high compression temperature and the 1st stage compression heat recovery unit 2C Air heat exchanger 2X Heat recovery with separate sunlight 28a of sunlight heating, challenge the infinite increase of the cold 28a mass including 2 to multiple stages, compress multiple times with 2 to 2 stage heat pump 1G, 2 to 2 stage compression heat recovery unit 2C Similarly to the first stage multiple times, the water heat exchanger 2Y and the specific material heat exchanger 2Z also collect heat according to the application and store it in an unlimited amount of high-pressure superheated steam 50 heat + compressed air 28a cold heat for various applications. As the various energy conservation cycles to be used, all the blade ratio critical material gravity solar heat turbine 8G power generation and ship driving process speeds up natural phenomena, supplying nitrogen, oxygen, CO2 etc. to seawater with cold and nutrients, The present invention relates to various energy conservation cycle coalescence engine technologies that greatly increase food to generate seawater temperature rise 0 CO2 exhaust 0 power generation and the like to prevent human extinction.

既存ジェット機ガスタービンも蒸気タービンと略同様に、回転出力や噴射圧力を0に近付け噴射推進出力を僅少として、空気抵抗01日に地球を16周等が可能な宇宙飛行を不可能にしておるため、比重大物質重力太陽熱発電と略同様に、全動翼比重大物質重力温熱タービン8G+全動翼比重大物質重力冷熱タービン8G駆動とし、3.6倍仕事率に近付けたタービン出力により多数の発電機駆動や熱ポンプ駆動として、多数の1〜複数段熱ポンプ1G熱製造により限り無く高圧大質量の温熱50+冷熱28aに分割保存し、合体機関噴射部78に供給して冷熱28aに燃料噴射着火燃焼して、限り無く高圧高速燃焼流にして外周や内周の温熱50を加熱し、大気圧100度に近付く温熱50を複数回1200度に近付けて、宇宙上昇時には噴射圧力を24MPa(既存蒸気タービン圧力)や限り無く高圧として、既存ジェット機の100〜200倍圧力10倍熱量噴射が可能な合体機関噴射部78とし、宇宙到達時には燃料費0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て、噴射推進出力や回転出力は1000倍狙い、大気中飛行時には3.6万倍仕事率に近付けた回転出力でプロペラ駆動等、噴射推進を含めてCO2排気0狙いの各種飛行機類にする、各種エネルギ保存サイクル合体機関の技術に関する。   The existing jet gas turbine is almost the same as the steam turbine in order to make the rotation output and injection pressure close to 0 and the injection propulsion output to be small, making it impossible to make space flight capable of making 16 orbits of the earth on the air resistance 01 day. In the same way as the specific material gravity solar thermal power generation, all blades specific material gravity thermal turbine 8G + all blades specific material gravity cooling turbine 8G drive, and many power generation by turbine output close to 3.6 times power As a machine drive and heat pump drive, it is divided and stored as many high-temperature and large-mass heat 50 + cold heat 28a by a large number of 1 to multi-stage heat pumps 1G heat production, supplied to the combined engine injection unit 78, and fuel injection ignition to the cold heat 28a Combustion, heat the heat 50 at the outer periphery and the inner periphery infinitely as a high-pressure and high-speed combustion flow, approach the heat 50 approaching the atmospheric pressure 100 degrees multiple times to 1200 degrees, The injection pressure is 24MPa (existing steam turbine pressure) and the infinitely high pressure, and it is a combined engine injection unit 78 capable of injecting 10 to 100 times the pressure of the existing jet 100 to 200 times pressure. 16 round trips and other trips anywhere on the earth are possible, aiming at 1000 times the jet propulsion output and rotation output, and propulsion propulsion with the rotation output approaching 36,000 times work rate when flying in the atmosphere The present invention relates to various energy storage cycle coalescing engine technologies that make various types of airplanes aiming at zero CO2 emissions.

既存船舶は蒸気タービンやガスタービンや更に低性能エンジンを使用し、回転出力や噴射推進出力を僅少として、低速移動に膨大な燃料を消費しているため、比重大物質重力太陽熱発電と略同様に、全動翼比重大物質重力温熱タービン8G+全動翼比重大物質重力冷熱タービン8G駆動とし、3.6倍仕事率に近付けたタービン出力により多数の発電機駆動や1〜複数段熱ポンプ1G駆動として、又は多数の電気駆動1〜複数段熱ポンプ1G熱製造により限り無く高圧の温熱50+冷熱28aに分割保存し、ウォータージェット79に供給して冷熱28a(酸化剤)に燃料噴射着火燃焼して、限り無く高圧高速燃焼流にして外周や内周の過熱蒸気50を加熱し、大気圧100度に近付く過熱蒸気を複数回1200度に近付けて、噴射圧力を24MPa(既存蒸気タービン圧力)や限り無く高圧として、既存ジェット機の100〜200倍圧力10倍熱量噴射が可能なウォータージェット79とし、噴射推進出力や回転出力は1000倍狙い、スクリュー推進時には3.6万倍仕事率に近付けた回転出力によりスクリュー駆動して、スクリュウ駆動ではCO2排気0狙いの各種船舶類にする、各種エネルギ保存サイクル合体機関の技術に関する。   Existing ships use steam turbines, gas turbines, and even lower performance engines, and have little rotational output and injection propulsion output, and consume a huge amount of fuel for low-speed movement. , All blade ratio critical material gravity thermal turbine 8G + all blade ratio critical material gravity cooling / heating turbine 8G drive, many generator drive and 1-stage heat pump 1G drive by turbine output approaching 3.6 times power Or a large number of electric drives 1 to a multistage heat pump 1G by heat production, divided and stored indefinitely high-pressure heat 50 + cold heat 28a, supplied to the water jet 79 and burned to the cold heat 28a (oxidant) by fuel injection ignition combustion , Heat the superheated steam 50 at the outer circumference and inner circumference to an unlimited high pressure and high speed combustion flow, bring the superheated steam approaching the atmospheric pressure of 100 degrees closer to 1200 degrees several times, and set the injection pressure to 2 The water jet 79 is capable of 100-200 times the pressure of existing jets and 10 times the calorific value of the existing jet, and the jet propulsion output and the rotational output are targeted 1000 times, and 3.6 at the time of screw propulsion. The present invention relates to technologies for various energy storage cycle coalescing engines that are driven by a screw with a rotational output approaching 10,000 times the work rate, and in the case of a screw drive, various ships aiming for zero CO2 emissions.

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、白金球重力タービン8G仕事率の1/3.6万と僅少に加えて、蒸気速度を堰止めて仕事皆無静翼を動翼と交互に半分具備して回転出力を0に近付け、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100年前後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度上昇すると、台風風速が300m/秒等になり海水の集中豪雨で人類が絶滅する危険があり、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等として日本の農業や林業が壊滅する心配があり、手遅れ前に最悪予想に対応した技術開発が必要。   Considering the elementary school science without brainwashing, the existing best steam turbine power generation at the same atmospheric pressure and same volumetric power kg kg m / sec is slightly less than 1 / 36,000 of the platinum ball gravity turbine 8G power, Stops the steam speed and has half the workless blades alternately with the moving blades, bringing the rotational output close to 0, raising the seawater temperature by 7 degrees with all the generated heat, making the whole sea surface temperature rise impossible, Increasing extreme weather without an upper limit The danger of human beings approaching extinction is increasing around 100 years. 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 it rises, the typhoon wind speed will be 300m / second, etc., and there is a danger that mankind will be extinct due to heavy rain of seawater. If China continues to grow 10%, the increase in seawater temperature will be doubled in 10 years to 4 in 20 years The speed of typhoons and seasonal winds is 100m / sec in the worst prediction, and there is a concern that Japanese agriculture and forestry will be destroyed due to heavy rain of suctioned seawater over the seawater. It is necessary to develop technology that meets the worst expectations.

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、白金球重力タービン8G仕事率の1/3.6万と僅少に加えて、仕事皆無静翼を動翼と交互に半分具備して回転出力を0に近付けております。しかし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ります。そこで例えば全動翼水銀重力太陽熱タービン8G駆動発電機や飛行機類や船舶類にして、飛行機船舶停止中は熱と電気と冷熱の供給設備等で使用すると、洗脳で長期間発明を阻止したため発明運用の過程で燃料費が0や0に近付く大革命となって、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、限り無く雇用を増大する製造運用に出来る背景がある。   Considering the elementary school science without brainwashing, the existing best steam turbine power generation at the same atmospheric pressure and same volumetric power kg kg m / sec is slightly less than 1 / 36,000 of the platinum ball gravity turbine 8G power, The work is equipped with half static blades alternately with moving blades, and the rotational output is approaching zero. However, in high schools and universities, the existing engine is explained as the best engine, and when you return to elementary school science without brainwashing and think about the best engine, the unit of work is heavy because the weight unit is kg weight m / second equal weight x speed. There is a background that there is no trace that thought that the rotation output generation with the material at high speed is the theoretical best engine. Therefore, for example, if a full-blade mercury gravity solar turbine 8G drive generator, airplanes and ships are used in a facility for supplying heat, electricity and cold while the airplane ship is stopped, brainwashing has prevented the invention for a long period of time. In the course of this process, the fuel cost will approach zero or zero, and the operating profit rate will be enormous, such as 10 times the existing operating profit ratio. There is a background that can be done.

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2.3万倍水銀仕事率にして、比重大物質の例えば、水銀・液体鉛等液体金属や金属球や被覆金属球を垂直下方に重力加速度加速にすると、低速で落差を増大する入力より重力加速度加速だけでも出力発生は大幅に増大し、タービンの大型化多数化+落差を1000m以上に増大限り無く出力を増大できる背景があります。地球での最大加速が重力加速度で無限大に近く、海水温度上昇0やCO2排気0や燃料費0の理論最良エンジン重力太陽熱発電等とし、地球最大熱量の太陽熱や地熱を熱ポンプ1Gで最も効率良く使用して、化石燃料等限りある資源を子孫に残す手段の、温熱や冷熱の回収利用無限大や無限大に近い発電量とし、重力太陽熱発電等の蓄電池駆動や電気駆動の、各種自動車類全盛や各種船舶類全盛や全面電化住宅全盛や工場電化全盛等、極端に安価な発電の蓄電池駆動や電気駆動の地球温暖化防止が得られる背景がある。 The atmospheric pressure, the same speed, the same volumetric power, kg weight m / second, and a mercury work rate of 23,000 times that of the existing steam turbine power generation, such as liquid metals such as mercury and liquid lead, metal balls, and coated metal balls Accelerating gravity acceleration vertically downward significantly increases output generation even with acceleration of gravitational acceleration alone rather than an input that increases the head at low speed, increasing the number of turbines + increasing the head to 1000 m or more and increasing the output without limit. There is a background. The maximum acceleration on the earth is almost infinite in gravitational acceleration, and the theoretical best engine gravity solar power generation with 0 seawater temperature rise, 0 CO2 exhaust and 0 fuel cost, etc., and the heat pump 1G is the most efficient with the heat and geothermal heat of the earth Various types of automobiles that are used frequently and have a limited amount of resources such as fossil fuels, recovering and using heat and cold, and generating power near infinity or near the infinity, using batteries or electric drives such as gravity solar power generation There is a background in which extremely inexpensive power storage battery drive and electric drive prevention of global warming can be obtained, such as prime, various kinds of ships, full-scale electrified housing, and factory electrification.

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国際出願優先権主張出願等は、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個の出願があります。There are 326 applications for PCT international application priority claim applications, such as Japanese Patent Application No. 2009-048869, application date March 3, 2009 to Japanese Patent Application No. 2010-007805, application date January 18, 2010 .

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を摂氏7度上昇してその海域を100年で1000倍等とし、下降気流や上昇気流を限り無く増大異常乾燥山火事や旱魃や集中豪雨等を限り無く増大して、海水の集中豪雨等により陸地全部に塩の被覆を設けて人類の陸上食物を限り無く減少し、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、植物プランクトンや海草類やサンゴ等を激減、食物連鎖により魚類を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、人類絶滅の危険を増大のため、地球温暖化防止して人類絶滅を先送りする課題がある。   At existing thermal power plants in the world, the seawater temperature is increased by 7 degrees Celsius with the total amount of heat generated, and the sea area is increased 1000 times in 100 years. Increased torrential rain, etc. without limit, and by covering the land with salt cover due to heavy rains of seawater, etc., the land food of mankind has been reduced as much as possible, and the natural phenomenon of supplying nutrients to the sea surface cooling seabed in winter is not allowed As possible, phytoplankton, seaweeds, corals, etc. will be drastically reduced, fish will be drastically reduced to 1/100, etc. by the food chain. Increasingly, for example, typhoons and seasonal winds are becoming huge in abnormal weather with no upper limit such as 300 m / sec, and there is a problem of delaying human extinction by preventing global warming in order to increase the danger of human extinction.

熱製造の1〜複数段熱ポンプ1Gを、全動翼比重大物質重力タービン8G直接駆動や発電機1電気で駆動し、限り無く高圧の温熱(過熱蒸気熱量)と冷熱(圧縮空気質量)を、燃料費0CO2排気0で無限製造して、温熱+冷熱駆動の重力太陽熱発電や重力太陽熱船舶や重力太陽熱飛行機にし、発電や船舶ではCO2を大気と共に吸引海底や海中に噴射供給自然現象を高速化して、海底や海中に冷熱の酸素や窒素やCO2等の栄養分を供給し、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て、飛行機はCO2排気0の宇宙飛行全盛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や大気中はCO2排気0飛行狙い等として、限りある石油資源等は必要最小限の使用とし、子子孫孫まで残すと共に地球温暖化防止して、旱魃や集中豪雨や台風や季節風の巨大化を阻止し、既存世界の10倍発電量として、各種重力太陽熱発電全盛にし、重力発電蓄電池駆動の各種自動車類全盛や各種船舶類全盛や、電気駆動の車両類全盛や全面電化住宅全盛や工場電化全盛や温熱と冷熱利用全盛にして、海水温度上昇0やCO2排気0や燃料費0で発電し、地球温暖化防止して人類の絶滅を先送りする。 Heat production 1 to multiple stage heat pump 1G is driven by all-blade specific material gravity turbine 8G direct drive or generator 1 electricity, and infinitely high pressure heat (superheated steam heat) and cold heat (compressed air mass) , Fuel cost 0 CO2 Exhaust 0, infinite production, thermal + cold driven gravity solar power generation, gravity solar thermal ship, gravity solar thermal airplane, power generation and ship sucking CO2 together with the atmosphere Supply nutrients such as cold oxygen, nitrogen and CO2 to the ocean floor and the sea, increase phytoplankton, seaweeds, corals and fish, etc., and increase human food. 16 times around the earth, day trips anywhere on the earth, and CO2 exhaust 0 flight aim in the atmosphere, etc., limited oil resources etc. are used to the minimum necessary, and to leave offspring and global warming To prevent droughts, torrential rains, typhoons and seasonal winds from becoming enormous, and to produce 10 times the amount of electricity generated in the existing world, to produce a variety of gravity solar thermal power, Electricity driven vehicles, full electrified housing prime, factory electrification prime, warm and cold use prime, generating seawater temperature 0, CO2 exhaust 0 and fuel cost 0, preventing global warming and extinction of mankind Postpone.

全動翼比重大物質重力タービン8G駆動にすると、無限大の落差を使用出来る効果が大きく、大気圧同速度同容積仕事率を既存蒸気タービン発電の3.6万倍に近付けて発電する場合に発電量を増大する効果が大きい。全動翼比重大物質重力温熱タービン8G+全動翼比重大物質重力冷熱タービン8G駆動にすると、落差制限の場合に仕事率を3.6万倍に近付けて発電量や飛行速度や船舶速度を増大する効果が大きく、燃料消費を0や僅少に出来るため資源を子孫に残す効果が大きく、各種重力発電や各種重力太陽熱船舶や各種重力太陽熱飛行機では、CO2を大気と共に吸入各種重力タービン駆動し、夫々のタービン駆動や発電機1電力駆動多数の1〜複数段熱ポンプ1Gで複数回圧縮熱回収して、超高圧の温熱+冷熱に分割保存使用し、発電機1やスクリュー7Cやプロペラ7Aや回転翼7Bは各種重力タービン駆動として、温熱50+冷熱28aでウォータージェット79や合体機関噴射部78を駆動するため、同一燃料量100〜1000倍回転出力や噴射推進出力狙いとし、燃料費0で100倍発電量や燃料費僅少で既存船舶や飛行機の10倍速度等を狙える効果がある。 When the gravity turbine 8G drive is used for all rotor blade ratio material, the effect of using an infinite head is great, and when generating power with the atmospheric pressure, the same speed and the same volumetric power approaching 36,000 times those of the existing steam turbine power generation. The effect of increasing power generation is great. Driven by all-blade ratio critical material gravity thermal turbine 8G + all-blade ratio critical material gravity cooling / heating turbine 8G, the power generation rate, flight speed, and ship speed are increased by approaching 36,000 times the power when the head is limited. The effect of leaving the resources to the offspring is great because the fuel consumption can be reduced to 0 or a little, and various gravity power generation, various gravitational solar thermal ships and various gravitational solar thermal airplanes drive CO2 with the atmosphere and various gravitational turbines, respectively. Turbine drive and generator 1 Power drive Compressed heat recovery multiple times with 1 to multiple-stage heat pump 1G, divided into ultrahigh pressure heat + cold heat, used for generator 1, screw 7C, propeller 7A and rotation Since the blades 7B drive various gravity turbines to drive the water jet 79 and the coalesced engine injection unit 78 with hot 50 + cold 28a, the same fuel amount is rotated 100 to 1000 times. And the injection promote the output aim, there is an aim effect a 10-speed level, and the like of an existing ship, an airplane at 100 times the amount of power generation and fuel costs insignificant in fuel costs 0.

海水温度上昇0やCO2排気0の発電や船舶では、膨大なCO2を大気と共に吸入して、その全部を海底や海中に冷熱28aの窒素や酸素やCO2等の栄養分として供給海水冷却し、自然現象高速化2a水中微生物の食料を増大して、水中微生物のCO2等栄養分の消化能力を空気中微生物や森林の数万倍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、食物連鎖で魚類等を増殖人類の食物を増大して、人類絶滅を先送りする効果が大きい。 In the case of power generation or ships with seawater temperature rise 0 or CO2 exhaust 0, a huge amount of CO2 is inhaled together with the atmosphere, and all of it is supplied as nutrients such as nitrogen, oxygen, and CO2 in the cold 28a to the seabed and sea, and is a natural phenomenon Speedup 2a Increases the food of underwater microorganisms, greatly increases the digestive capacity of nutrients such as CO2 of underwater microorganisms to tens of thousands of airborne microorganisms and forests, proliferates phytoplankton, seaweeds and corals, Proliferate fish in the food chain, increase human food, and have the effect of delaying human extinction.

各種重力太陽熱飛行機では、同一燃料量100〜1000倍回転出力や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、大気中は燃料量0のプロペラ飛行や回転翼飛行や噴射推進狙いにし、過熱蒸気膨張速度が真空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大出力ロケット推進して、宇宙到達燃料費を1/100以下等僅少にし、既存世界の各種船舶類や各種飛行機類で宇宙利用全盛を狙う効果と、資源を子孫に残す効果がある。 Various gravitational solar thermal airplanes have the effect of aiming for space utilization with the same fuel amount of 100 to 1000 times rotation output and injection propulsion output. For example, the injection propulsion output is 100 times the pressure of existing jets, 10 times the calorific value, and 1000 times the time of propulsion. The target for output is propeller flight with zero fuel amount in the atmosphere, rotor blade flight, and jet propulsion aim. Since the superheated steam expansion speed is the maximum in vacuum, the existing space rocket ground mass injection is considered the worst, near the highest flight altitude of the existing aircraft It has the effect of propelling higher power rockets, reducing the fuel cost for reaching space to 1/100 or less, aiming to make the best use of space in various ships and airplanes in the existing world, and leaving resources to descendants.

全動翼比重大物質重力タービン8Gの説明図(実施例1)Explanatory drawing of gravity blade 8G for all blade ratio material (Example 1) 全動翼比重大物質重力温熱タービン8Gの説明図(実施例2)Explanatory drawing of gravity blade thermal turbine 8G for all blade ratio material (Example 2) 全動翼比重大物質重力冷熱タービン8Gの説明図(実施例3)Explanatory drawing of gravity moving / cooling turbine 8G for all blade ratio material (Example 3) 太陽光加熱器2の説明図(実施例4)Explanatory drawing of the solar heater 2 (Example 4) スクリュー船舶39Dの説明図(実施例5)Explanatory drawing of screw ship 39D (Example 5) 水吸引79Xスクリュー船舶39Dの説明図(実施例6)Explanatory drawing of water suction 79X screw ship 39D (Example 6) 水吸引79X船舶38Cの説明図(実施例7)Explanatory drawing of water suction 79X ship 38C (Example 7) 空気吸引79Z船舶38Bの説明図(実施例8)Explanatory drawing of air suction 79Z ship 38B (Example 8) 空気吸引79Zスクリュー船舶39Eの説明図(実施例9)Explanatory drawing of air suction 79Z screw ship 39E (Example 9) 合体機関噴射部78B太陽熱重力飛行機39Aの説明図(実施例10)Explanatory drawing of union engine injection part 78B solar gravity airplane 39A (Example 10) 合体機関噴射部78B太陽熱重力回転飛行機39B説明図(実施例11)Combined engine injection unit 78B solar gravity rotating airplane 39B explanatory diagram (Example 11) ウォータージェット79Uの説明図(実施例12)Explanatory drawing of water jet 79U (Example 12) ウォータージェット79Xの説明図(実施例13)Explanatory drawing of water jet 79X (Example 13) ウォータージェット79Sの説明図(実施例14)Explanatory drawing of water jet 79S (Example 14) ウォータージェット79Tの説明図(実施例15)Explanatory drawing of water jet 79T (Example 15) ウォータージェット79Yの説明図(実施例16)Explanatory drawing of water jet 79Y (Example 16) ウォータージェット79Zの説明図(実施例17)Explanatory drawing of water jet 79Z (Example 17) 合体機関噴射部78Wの説明図(実施例18)Explanatory drawing of the union engine injection part 78W (Example 18) 合体機関噴射部78Vの説明図(実施例19)Explanatory drawing of the union engine injection part 78V (Example 19) 合体機関噴射部78Aの説明図(実施例20)Explanatory drawing of the union engine injection part 78A (Example 20) 合体機関噴射部78Bの説明図(実施例21)Explanatory drawing of the union engine injection part 78B (Example 21)

発明を実施するための形態が先の出願は次の理論最良エンジン発明が目的のため、自分だけ理解可能で第三者理解不可能が最良でしたが、理論最良エンジンに到達第三者が実験可能な発明の具体化に挑戦します。既存エンジンが洗脳で長期間発明が阻止され、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、白金球仕事率の1/3.6万と僅少にし、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を7度上昇し、20年前後で日本近海の台風や季節風の上昇気流を増大して、海水を上空に吸引海水の豪雨が予想される等、100年前後で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、発明の一部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、例えば全動翼タービン4種類の3種類は横軸タービンで既存タービンに近く理解容易のため、省略した実施例の説明として、発明の具体化に挑戦します。   The previous application was for the purpose of inventing the next theoretical best engine, so it was best to understand only by yourself and impossible to understand by a third party. We will challenge the realization of possible inventions. The existing engine was brainwashed and the invention was blocked for a long time. For example, the current best steam turbine power generation at the same pressure and volumetric capacity kg kg m / sec was reduced to 1 / 36,000 of the platinum ball power, The blades are placed alternately with the moving blades and weired to bring the rotational output close to 0, increasing the seawater temperature by 7 degrees with all the heat generated by the steam turbine power generation, and increasing the typhoon and seasonal wind updraft around Japan around 20 years Then, there is a danger that the extinction of mankind will approach in about 100 years, such as a heavy rain of suction seawater is expected over the sea. That is, since the invention becomes too large due to many fatal defects of the existing technology, a part of the invention is described in the explanation of the reference numerals, and the part described repeatedly in the previous application is omitted. The three types are horizontal axis turbines that are close to existing turbines and easy to understand, so we will try to materialize the invention as an explanation of the omitted examples.

図1の全動翼比重大物質重力タービン8G発電では、全動翼タービン4種類は形状の相違以外は重力使用や熱ポンプ駆動等全部同じのため、既存タービンに遠い竪型タービン8Gで代用説明し、温熱加速・冷熱加速・真空加速3種類の内、比重大物質重力真空加速使用とした全動翼比重大物質重力タービン8Gを、タービン外箱77a内に1〜120段等落差使用無制限とし、タービン翼角度を衝撃に強い角度や比重大物質2E最適速度使用として、金属球使用では超小径球使用で衝撃を低減タービン翼保護し、更にシリコン被覆超小径球等弾力性弾性材料の被覆を設けタービン翼を保護して、タービン翼も被覆超硬合金等で鏡面としてタービン翼摩耗防止とし、比重大物質上昇装置2Fにより比重大物質2Eを最上部に上昇保存して、比重大物質2Eを比重大物質加速機6Wで噴射し、重力加速部1g重力中核加速真空加速で最適速度にして、全動翼比重大物質重力タービン8Gを駆動し、タービン間継ぎ手に横軸1hを設けて回転方向を交互にして、タービン外箱77a外で図に無い発電機1や1〜複数段熱ポンプ1G多数を駆動し、1〜12倍径外側動翼群60D内側動翼群60Cの回転方向を二重反転装置84でも交互にして、又は二重反転歯車装置84Yにより回転方向交互にし、振動や騒音を相殺僅少にした発電にする。 In the gravity turbine 8G power generation of the all-blade specific material gravity turbine of FIG. 1, all four blade turbines are the same except for the difference in shape, such as gravity use and heat pump drive. Of the three types of thermal acceleration / cooling acceleration / vacuum acceleration, the all-blade specific gravity gravity turbine 8G, which uses specific gravity gravity acceleration, is used in the turbine outer box 77a with a head drop of 1 to 120 stages and unlimited use. The turbine blade angle is strong against impact and the optimum speed of the critical material 2E is used. When using a metal sphere, the impact is reduced by using an ultra-small sphere to protect the turbine blade, and the coating of elastic elastic material such as silicon-coated ultra-small sphere is applied. Protects the turbine blades, and the turbine blades are coated with cemented carbide to prevent the turbine blades from wearing, and the specific material 2E is raised and stored at the top by the specific material riser 2F. Material 2E is injected by specific material accelerator 6W, gravity acceleration part 1g gravity core acceleration vacuum acceleration to optimum speed, driving all blade ratio material gravity turbine 8G, horizontal axis 1h is provided at the turbine joint By rotating the rotation direction alternately, the generator 1 and many 1-stage heat pumps 1G not shown in the figure are driven outside the turbine outer casing 77a, and the rotation of the inner blade group 60C of the outer blade group 60D having a diameter of 1 to 12 times larger is rotated. The direction is alternately changed in the counter rotating device 84 or the rotating direction is alternately switched by the counter rotating gear device 84Y, thereby generating power with negligible vibration and noise.

電気需要や熱需要は無限に近く発電機1や1〜複数段熱ポンプ1G駆動を必須とし、全動翼比重大物質重力タービン8G横軸1h駆動や横軸1h駆動発電機電力駆動の、1段熱ポンプ1Gで大気を吸入圧縮20〜100度前後にして、1段圧縮熱回収器2C空気熱交換器2Xで別大気28aを加熱し、20〜100度前後に加熱1段熱ポンプ1Gで100〜500度等に圧縮別大気で熱回収を繰り返す熱製造や、2〜複数段圧縮熱回収器2C空気熱交換器2Xでも別大気28aを加熱して、1段熱ポンプ1Gで圧縮する圧縮空気冷熱28aの質量増大に挑戦し、2〜複数段圧縮熱回収器2C2〜複数段熱ポンプ1G選択使用で、複数回圧縮複数回熱回収限り無く高圧の超高圧冷熱28aに挑戦して、200度前後24〜400MPa圧縮空気28a冷熱+400度前後24〜400MPa過熱蒸気50温熱に分割保存使用し、例えばメタンハイドレートに温熱50を注入メタンの回収利用や、炊飯器や洗濯乾燥機を温熱50で駆動する台所革命や、暖房や冷房等に温熱50や冷熱28aを使用温室栽培や氷製造等、無限用途対応の加熱革命や冷却革命にする。 Electricity demand and heat demand are almost infinite, and generator 1 and 1 to 1 stage multi-stage heat pump 1G drive are essential, and all blade ratio critical material gravity turbine 8G horizontal axis 1h drive and horizontal axis 1h drive generator power drive 1 The air is sucked and compressed at about 20 to 100 degrees by the stage heat pump 1G, and the other atmosphere 28a is heated by the first stage compression heat recovery unit 2C air heat exchanger 2X, and heated at about 20 to 100 degrees by the first stage heat pump 1G. Heat production that repeats heat recovery at 100 to 500 degrees, etc., in the compressed air, or compression that heats the separate air 28a in the 2 to multi-stage compression heat recovery unit 2C air heat exchanger 2X and compresses it with the single-stage heat pump 1G Challenge to increase the mass of air-cooled heat 28a, 2 to multi-stage compression heat recovery unit 2C2 to multi-stage heat pump 1G selective use, challenge to high pressure ultra-high pressure cold heat 28a without any limitation of multiple-time compression multiple-time heat recovery, 200 24-400 MPa compressed air before and after degrees 8a cold + 400 degrees around 24 to 400MPa Superheated steam 50 divided heat and use, for example, injecting heat 50 into methane hydrate, recovering and using methane, kitchen revolution to drive rice cookers and washing dryers with heat 50, heating Use heating 50 or cooling 28a for air conditioning or cooling, etc. Heating and cooling revolutions for endless applications such as greenhouse cultivation and ice production.

内側動翼群60C外側動翼群60Dは、可能な限り全自動加工可能に段落毎同径略同形として嵌合ボルト組立にして、多段動翼群と多段タービンを可能にすると共に全自動加工や組立容易にし、大重量を支える大径部追加油圧浮上部追加の推力軸受80aや、軸受80や比重大物質を加速する重力加速部1gを設け、重力加速部1g継ぎ手には発電機1を駆動する横軸1h貫通穴を具備して、発電機1をタービン外箱77aの外で駆動し、全動翼比重大物質重力タービン8Gを比重大物質加速機6W加速と重力真空加速で駆動して、重力加速部1gにより最適速度とし、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3.6万倍に近付ける多数発電機発電や低速回転発電にして、既存タービン翼断面の1〜26倍断面4Xに噴射し、比重大物質2Eの転がり接触回転出力発生として、排気の過程では真空駆動タービン排気を空気抽出器51で高真空可能に冷熱冷却等とし、空気抽出器51により高真空として、海水温度上昇0CO2排気0燃料費0の発電で利益率世界一にし、地球温暖化防止の各種エネルギ保存サイクル合体機関。 The inner rotor blade group 60C and outer rotor blade group 60D can be fully automated as much as possible, and can be assembled into a fitting bolt assembly with the same diameter and the same shape for each stage to enable a multistage rotor blade group and a multistage turbine, A large-diameter portion that supports large weight and an additional hydraulic floating part 80a, and a gravity acceleration unit 1g that accelerates the bearing 80 and specific material are provided, and the generator 1 is driven by the joint of the gravity acceleration unit 1g. The generator 1 is driven out of the turbine outer box 77a, and the all blades specific gravity material gravity turbine 8G is driven by the specific material acceleration 6W acceleration and gravity vacuum acceleration. The gravity acceleration unit 1g makes the optimum speed, the multi-generator power generation and the low-speed rotation power generation close to 36,000 times the existing steam turbine power generation, and the existing turbine 1 to 26 times the cross section of the wing cross section 4 In order to generate the rolling contact rotation output of the specific critical substance 2E, in the exhaust process, the vacuum driven turbine exhaust can be cooled by the air extractor 51 so that it can be subjected to high-temperature cooling, etc. Combines various energy conservation cycle coalescence engines that are the world's most profitable by generating electricity with rising CO2 emissions, 0 fuel costs, and preventing global warming.

図2の全動翼比重大物質重力太陽熱温熱タービン8G発電では、全動翼タービン4種類の内竪型タービン8G太陽熱利用(地熱利用も略同じ)で説明し、温熱加速・冷熱加速・真空加速3種類の内、比重大物質重力温熱加速使用として、全動翼比重大物質重力温熱タービン8Gをタービン外箱77a内垂直に1〜10段に設け、用途に合わせた台数使用にし、比重大物質上昇装置2Fにより比重大物質を最上部に上昇保存して、図4太陽光加熱器2や変形により吸入空気28aを太陽光と長レンズ2dと熱吸収材2Bにより加熱し、横軸1h駆動や横軸1h駆動発電機電力駆動の、1段熱ポンプ1Gで吸入圧縮800度前後にして、1段圧縮熱回収器2C空気熱交換器2Xで太陽光加熱の別空気28aを加熱し、500度前後に加熱1段熱ポンプ1Gで1200度等に圧縮熱回収高圧冷熱28aにして、冷熱の回収量無限増大製造にし、2〜複数段圧縮熱回収器2C2〜複数段熱ポンプ1G選択使用で、複数回圧縮複数回熱回収限り無く高圧の超高圧冷熱28a製造にして、200度前後24〜400MPa圧縮空気28a冷熱+400度前後24〜400MPa過熱蒸気50温熱に分割保存し、比重大物質2Eを比重大物質加速機6Wで噴射して、温熱50で加速し、重力加速部1gで重力中核加速最適速度にして、タービン間に横軸1hを設け、タービン外箱77a外で図に無い発電機1や熱ポンプ1G多数等を駆動し、1〜12倍径タービン翼の回転方向を交互にして、振動や騒音を相殺僅少にした発電にする。   In the case of 8G power generation of all-blade specific material gravity solar thermal turbine 8G in Fig. 2, the explanation is given in the four types of all-blade turbine 8G internal turbine 8G solar thermal utilization (geothermal utilization is also the same), thermal acceleration, cold acceleration, vacuum acceleration Among the three types, the specific critical material gravity thermal acceleration acceleration use, the all blades specific gravity material gravity thermal turbine 8G is installed in 1 to 10 stages vertically in the turbine outer box 77a, and the number of units suitable for the application is used. Ascending apparatus 2F raises and stores a specific critical substance at the top, and FIG. 4 sunlight heater 2 or deformation causes intake air 28a to be heated by sunlight, long lens 2d and heat absorbing material 2B, The horizontal axis 1h drive generator power drive, the first stage heat pump 1G makes the suction compression around 800 degrees, and the first stage compression heat recovery unit 2C air heat exchanger 2X heats the solar-heated air 28a to 500 degrees 1 stage heat po Compressive heat recovery to high pressure refrigeration 28a at 1200 ° C, etc., to produce an infinite increase in the amount of cold recovered, 2 to 2 stage compression heat recovery unit 2C2 to multiple stage heat pump 1G selection use, multiple compression and multiple heat The high-pressure ultra-high-pressure cold 28a is produced without limitation, and is divided and stored into 24-200MPa compressed air 28a cold around 200 degrees + 24-400MPa superheated steam 50-heated around 400 degrees. Injected and accelerated with warm heat 50, with the gravitational acceleration unit 1g to the optimum speed of gravity core acceleration, a horizontal axis 1h is provided between the turbines, and a generator 1 and a number of heat pumps 1G not shown outside the turbine outer box 77a Is driven, and the rotation direction of the 1 to 12 times diameter turbine blades is alternated to generate power generation with negligible vibration and noise.

全動翼比重大物質重力太陽熱温熱タービン8Gでも比重大物質2E使用のため、タービン翼角度を衝撃に強い角度や比重大物質2E最適速度使用とし、金属球使用では超小径鋼球使用やシリコン樹脂等弾力性弾性材料の被覆鋼球使用等として、被覆超硬合金等で鏡面としたタービン翼摩耗防止とし、1〜複数段圧縮熱回収器2Cには、夫々水熱交換器2Yや空気熱交換器2Xや比重大物質熱交換器2Zを具備駆動して、太陽熱を種に1〜複数段熱ポンプ1Gと1〜複数段圧縮熱回収器2Cにより、無限大に近い温熱50(圧縮空気熱量の過熱蒸気50)や冷熱28a(圧縮空気質量)を製造分割保存し、過熱蒸気50温熱加速で全動翼比重大物質重力太陽熱温熱タービン8Gを駆動して、温熱タービン8G排気の過程では、冷熱海水混合器2Hにより可能な限り深海の低温海水を吸入し、冷熱タービン8G排気の冷熱回収器103冷熱回収後の冷熱空気混合で海水を冷却して、自然現象高速化装置2aで海底に供給する循環にし、海底等に冷熱28aの窒素や酸素やCO2等を混合溶解して、自然現象高速化2a時間延長中に温熱タービン8G排気温熱50を冷却復水にし、復水ポンプ1Fと水熱交換器2Yで過熱蒸気50にして、海中微生物に栄養分供給CO2等の消化能力を森林の数万倍等に増大し、地球温暖化防止する。 Since all the blade specific material gravity solar thermal turbine 8G uses the specific material 2E, the turbine blade angle is set to the angle that is strong against impact and the specific material 2E optimum speed is used. Use of coated elastic steel balls made of isoelastic elastic material, etc. to prevent wear of turbine blades mirrored with coated cemented carbide, etc., 1 to multi-stage compression heat recovery unit 2C, water heat exchanger 2Y and air heat exchange respectively 2X and specific material heat exchanger 2Z are driven and solar heat is used as a seed, and 1 to multi-stage heat pump 1G and 1 to multi-stage compressed heat recovery unit 2C are used to generate a near-infinite temperature 50 (compressed air heat quantity). The superheated steam 50) and the cold 28a (compressed air mass) are divided and stored, the superheated steam 50 is accelerated, and the total moving blade ratio material gravity solar thermal turbine 8G is driven. In the process of exhausting the thermal turbine 8G, Mixer 2 As a result, the low temperature seawater in the deep sea is sucked in as much as possible, the cold heat recovery unit 103 of the cooling turbine 8G exhaust cools the seawater by the cold air mixing after the cold recovery, and the natural phenomenon speed-up device 2a circulates to supply the seabed. Mixing and dissolving nitrogen, oxygen, CO2, etc. of the cold heat 28a to the natural turbine speeding up 2a, the hot turbine 8G exhaust heat 50 is cooled to condensate and superheated by the condensate pump 1F and the water heat exchanger 2Y. Steam 50 is used to increase the digestive capacity of nutrients such as CO2 supplied to marine microorganisms tens of thousands times that of forests, thereby preventing global warming.

海水に窒素や酸素やCO2等の栄養分を供給自然現象高速化して、植物プランクトンや海草類やサンゴ等を増殖し、食物連鎖等で魚類等人類の食物を増大空気抽出器51と冷熱追加冷却で最高真空にして、温熱タービン8Gを駆動温度上昇した比重大物質2Eで冷熱タービン8Gを駆動し、比重大物質を冷却温度低下さして、温熱タービンを駆動温度上昇する循環にし、内側動翼群60C外側動翼群60Dは大重量を支える油圧浮上追加の推力軸受80aを設け、可能な限り全自動加工可能に段落毎同径略同形として嵌合ボルト組立にして、多段動翼群と多段タービンを可能にすると共に全自動加工や組立容易にし、比重大物質を加速する重力加速部1g継ぎ手には、発電機1を駆動する横軸1h貫通穴を具備して、発電機1や熱ポンプ1G等をタービン外箱77aの外で駆動し、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3.6万倍に近付ける比重大物質重力温熱タービン8Gにして、既存タービン翼断面積の2〜26倍断面積表面積増大タービン翼断面4Xに噴射し、比重大物質2Eの転がり接触回転出力発生で重力や太陽熱を最大限利用し、1〜複数段圧縮熱回収器2Cで熱回収して冷熱+温熱を製造保存して、発電や船舶駆動や飛行機駆動等各種用途に使用する、各種エネルギ保存サイクル合体機関。 Supplying nutrients such as nitrogen, oxygen and CO2 to seawater Accelerates natural phenomena, proliferates phytoplankton, seaweeds and corals, etc. Increases human food such as fish in the food chain etc. The cooling turbine 8G is driven by the specific critical material 2E whose driving temperature has been raised and the thermal turbine 8G is driven in a vacuum, and the specific critical material is cooled to lower the cooling temperature, and the thermal turbine is circulated to increase the driving temperature. The blade group 60D is provided with an additional thrust bearing 80a for hydraulic levitation to support a large weight, and can be fully automatic processed as much as possible by making fitting bolts assembling bolts with the same diameter and approximately the same shape for each stage, enabling a multistage blade group and a multistage turbine. At the same time, fully automatic machining and assembly are facilitated, and the gravity acceleration part 1g joint for accelerating specific substances is provided with a horizontal shaft 1h through-hole for driving the generator 1, so that the generator 1 and heat pump 1G Is driven outside the turbine outer box 77a, and the specific turbine gravity turbine 8G, which is close to 36,000 times that of the existing steam turbine power generation, has the atmospheric pressure, the same speed, and the same volumetric power, kg weight m / sec. 2 to 26 times the blade cross-sectional area increased surface area of the turbine blade 4X is injected into the turbine blade cross-section 4X, and the gravity and solar heat is utilized to the maximum by generating the rolling contact rotation output of the specific material 2E. A combined energy storage cycle engine that recovers heat, manufactures and stores cold + warm heat, and uses it for various applications such as power generation, ship drive and airplane drive.

図3の全動翼比重大物質重力太陽熱冷熱タービン8Gも同様に、被覆超硬合金等タービン翼摩耗防止とし、垂直に多段に設けて用途に合わせた台数使用にして、温熱タービン駆動で温度上昇した比重大物質2Eを比重大物質上昇装置2Fで最上部に上昇保存し、比重大物質加速機6Wで噴射して、圧縮空気28a冷熱加速重力加速部1G重力中核加速し、全動翼比重大物質重力冷熱タービン8Gを比重大物質2E最適速度の転がり接触で駆動して、駆動の過程で絶対0度に近付く圧縮空気28aを温度上昇した比重大物質で加熱し、圧縮空気28a容積速度を増大して、タービン出力を増大して比重大物質を冷却し、冷却した比重大物質で温熱タービン8Gを駆動、比重大物質温度を上昇する循環として、排気の過程の冷熱回収器103で冷熱回収アルコール冷熱1C等で使用し、冷熱回収後の冷熱タービン排気冷熱を図2冷熱海水混合器2Hで海水に混合して、温熱タービン排気冷却の過程で自然現象高速化装置2a自然現象高速化2aし、海底に窒素や酸素やCO2等の栄養分を供給人類の食物を増大する、全動翼比重大物質重力冷熱タービン8Gにする。 Similarly, the all-blade ratio critical material gravity solar cooling / cooling turbine 8G in FIG. 3 is also used to prevent the wear of turbine blades such as coated cemented carbide, and is installed vertically in multiple stages to increase the temperature by driving the thermal turbine. The specific critical material 2E is stored in the uppermost position by the specific critical material raising device 2F, injected by the specific critical material accelerator 6W, accelerated by the compressed air 28a, the cold acceleration gravity acceleration unit 1G, and the core ratio of all blades The material gravity refrigeration turbine 8G is driven by rolling contact with the optimum speed of the specific critical material 2E, and the compressed air 28a approaching absolute 0 degree is heated in the driving process with the specific critical material whose temperature is increased, and the volume speed of the compressed air 28a is increased. Then, the turbine output is increased to cool the specific critical material, the thermal turbine 8G is driven by the cooled specific critical material, and the cooling is performed by the cool recovery unit 103 in the exhaust process as a circulation to raise the specific critical material temperature. Used in the recovered alcohol cold heat 1C, etc., and the cold turbine exhaust cold energy after cold recovery is mixed with seawater by the cold seawater mixer 2H in FIG. 2, and the natural phenomenon speedup device 2a natural phenomenon speedup 2a in the process of hot turbine exhaust cooling Then, feed the nutrients such as nitrogen, oxygen and CO2 to the sea floor, and increase the food of human beings to make the whole blade ratio material gravity gravity cooling turbine 8G.

全動翼比重大物質重力冷熱タービン8G回転出力発生の過程では、絶対0度に近付く圧縮空気28aを比重大物質2Eで加熱容積速度を増大して、重力加速度に追加してタービンの回転出力増大し、冷熱タービン排気より冷熱回収器103で冷熱回収して、残りの冷熱の低温圧縮空気28aを空気抽出器51で吸入圧縮し、温熱タービン排気の冷却海水に噴射混合する冷熱海水混合器2Hで冷熱冷却して、温熱タービン排気を冷却復水にして海水等に噴射混合する自然現象高速化装置2aにより噴射し、自然現象高速化して窒素や酸素やCO2等の栄養分を海底に供給して、内側動翼群60C外側動翼群60Dには、大重量を支える油圧浮上追加の推力軸受80aを具備し、多段タービンを可能にして、図2同様に超高圧の冷熱+温熱を大量生産するエネルギ保存サイクルにし、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3.6万倍に近付けた仕事率にし、既存タービン翼断面積の2〜26倍断面積にしたタービン翼断面4Xに噴射して、比重大物質2Eの転がり接触回転出力発生とし、重力エネルギや太陽熱エネルギを最大限利用する、各種エネルギ保存サイクル合体機関。 In the process of generating the rotating power of all rotor blade specific material gravity cooling turbine 8G, increase the heating volume speed of compressed air 28a approaching absolute 0 degree with specific material 2E and add to the gravitational acceleration to increase the rotating output of turbine Then, cold heat is recovered from the cold turbine exhaust by the cold heat recovery unit 103, and the remaining cold low-temperature compressed air 28a is sucked and compressed by the air extractor 51, and injected and mixed into the cooling seawater of the hot turbine exhaust by the cold hot water mixer 2H. Cooling and cooling, the thermal turbine exhaust is cooled and condensed and injected into seawater, etc., and injected by the natural phenomenon acceleration device 2a, the natural phenomenon is accelerated and nutrients such as nitrogen, oxygen and CO2 are supplied to the seabed, The inner rotor blade group 60C and the outer rotor blade group 60D are provided with an additional thrust bearing 80a for hydraulic levitation to support a large weight, enabling a multi-stage turbine, and a large amount of ultra-high pressure cold / heat as in FIG. The energy conservation cycle to be produced, the atmospheric pressure, the same speed, and the same volumetric power, kg weight m / sec, are made close to 36,000 times that of the existing steam turbine power generation, and the existing turbine blade cross-sectional area is cut 2 to 26 times Various energy conservation cycle coalescing engines that inject onto the turbine blade cross section 4X with the area to generate rolling contact rotation output of the specific material 2E and make maximum use of gravitational energy and solar thermal energy.

図4の太陽光加熱器2は各種水面を利用し、地球最大熱量の太陽光を長レンズ2dで直線状に集めて熱吸収材2B温度を上昇して、長レンズ2dの幅を増大吸入空気路28A空気28a温度を燃料費0で上昇し、1日で3日分温度上昇する等として、既存のレンズ断面全部を選択使用可能とし、選択したレンズ断面を直線状に延長して太陽光を直線状に集光して、レンズ材質全部を選択使用可能とし、発泡プラスチック等の断熱材2cを半筒形外箱77Bで囲って円筒等の長大な筒を設けて、その中に耐熱材2Aを設けて太陽熱で高温にする板状熱吸収材2Bで空気28aを加熱し、上部に複数等の幅広長大な長レンズ2dを継手80A+締付具80Bで密封真空断熱可能に設けて、長手方向には継手80Aで延長可能に、180度方向転換の場合はU型空気管で接続並行に設けて、水上で東から西に180度回転太陽光と直角にする太陽光加熱器2とし、更に傾斜して太陽光に2方向直角維持回転する装置として、空気28aを加熱することで1〜複数段熱ポンプ1Gにより吸入圧縮800〜1200度を可能にして、空気を加熱圧縮することで、太陽光熱製造や地熱熱製造(太陽光熱製造で代用説明)を可能にし、図2説明の1〜複数段熱ポンプ1G熱製造で超高圧冷熱+超高圧温熱の無限熱製造にして、ウォータージェット79や合体機関噴射部78の温熱50+冷熱28a噴射等、温熱利用全盛や冷熱利用全盛にする。   The solar heater 2 shown in FIG. 4 uses various water surfaces, collects sunlight with the maximum amount of heat in a straight line with the long lens 2d, raises the temperature of the heat absorbing material 2B, and increases the width of the long lens 2d. Path 28A The air 28a temperature is increased at zero fuel cost, the temperature is increased by 3 days in one day, etc., so that all existing lens cross sections can be selected and used, and the selected lens cross section is linearly extended to generate sunlight. Condensed in a straight line so that all lens materials can be selected and used, and a long cylinder such as a cylinder is provided by surrounding a heat insulating material 2c such as foamed plastic with a semi-cylindrical outer box 77B, and a heat resistant material 2A is provided therein. The air 28a is heated by a plate-like heat absorbing material 2B that is heated to high temperature by solar heat, and a plurality of wide and long lenses 2d and the like are provided on the upper portion so as to be sealed and thermally insulated by a joint 80A + clamp 80B. Can be extended with a joint 80A, 180 degrees direction change In this case, a U-shaped air pipe is connected in parallel, and the solar heater 2 is rotated 180 degrees from the east to the west on the water to make a right angle with the sunlight. , By heating the air 28a, the suction compression 800-1200 degrees is possible with the 1-stage heat pump 1G, and the air is heated and compressed, so that solar heat production and geothermal heat production (substituting explanation with solar heat production) 2, the 1-multistage heat pump 1G described in FIG. 2 is used for infinite heat production of ultra-high pressure cold + ultra-high pressure heat, and heat such as water jet 79 and hot water 50 of the combined engine injection section 78 + cold 28a injection, etc. Use prime and cold energy prime.

図5のスクリュー船舶39D回転出力発生では、図1の全動翼比重大物質重力タービン8Gでスクリュー7C駆動として、電気や温熱50や冷熱28aの需要が僅少の船舶は、回転出力主力の比重大物質2E重力真空加速タービン8G駆動とし、シリコン被覆超小径鋼球等資源量に合せて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3.6万倍に近付け、既存スクリュー船舶と合体1000倍回転出力等比重大物質2E低速使用を可能として、大型スクリュー高速駆動等として既存船舶の5倍速度等にし、CO2排気0燃料費0使用熱量0運用利益率既存船舶の10倍狙いとして、各種中大型スクリュー船舶39D全盛狙う、各種エネルギ保存サイクル合体機関。 In the generation of rotational output of the screw ship 39D in FIG. 5, the ship with a small demand for electricity, heat 50, and cold 28a is driven by the all-blade ratio critical material gravity turbine 8G in FIG. The material 2E gravity vacuum acceleration turbine 8G drive, the atmospheric pressure, the same speed, and the same volumetric power, kg weight m / second, close to 36,000 times that of the existing steam turbine power generation, according to the amount of resources such as silicon-coated ultra-small diameter steel balls, Combined with existing screw ship, 1000 times rotation output, etc. Specific material 2E Low speed use is possible, large screw high speed drive etc. is set to 5 times speed of existing ship, CO2 exhaust 0 fuel cost 0 heat consumption 0 operation profit rate Various energy conservation cycle coalescence engines aiming for 10 times as many targets as various medium-sized and large-sized screw ships 39D.

図6のウォータージェット79X水吸引噴射スクリュー船舶39D駆動では、図2図3全動翼比重大物質重力太陽熱タービン8G必要台数具備し、図4太陽光加熱器2の変形を具備して、太陽光加熱の空気28aを1〜複数段熱ポンプ1Gと1〜複数段圧縮熱交換器2Cで、複数回圧縮高温にして複数回熱回収し、図2と同様に温熱50+冷熱28aに分割保存して、全動翼比重大物質重力太陽熱タービン8Gでスクリュー7Cを駆動し、限り無く高圧大質量等の温熱50+冷熱28aによりウォータージェット79Xを駆動して、噴射推進の過程では、夫々の空気抽出器51を合流抽出器51として吸引出力を大幅に増大し、79X燃焼ガス高速噴射流最適圧力部に冷熱28aを吸引合流して、酸化剤を増大して冷熱タービン8G排気圧力を最低に出力最大にし、79X過熱蒸気高速噴射流最適圧力部には温熱50を吸引合流して、最高真空にして温熱タービン8G出力を最大にし、自然現象高速化して窒素や酸素やCO2等全部を海水に混合して、海水中の微生物に食糧や栄養分を供給し、微生物を増大微生物の消化能力を森林の数万倍狙いとして、ウォータージェット79X水吸引噴射推進にし、最も効率良く自然現象高速化2a人類の食糧を増大して、既存船舶の10倍速度狙いとし、各種中大型ウォータージェット79Xスクリュー船舶39D全盛狙う、各種エネルギ保存サイクル合体機関にする。   The water jet 79X water suction / injection screw ship 39D drive in FIG. 6 has the necessary number of all-blade ratio critical material gravity solar turbines 8G in FIG. 2, FIG. 3, and has the modification of the solar heater 2 in FIG. Heated air 28a is compressed multiple times with 1 to multiple-stage heat pump 1G and 1 to multiple-stage compression heat exchanger 2C, and heat is recovered multiple times, and divided and stored as hot 50 + cold 28a as in FIG. In the process of injection propulsion, each of the air extractors 51 is driven by driving the screw 7C with the total moving blade ratio critical material gravity solar heat turbine 8G and driving the water jet 79X with the hot 50 + cold heat 28a without limitation. As a combined extractor 51, the suction output is greatly increased, the cold 28a is sucked and merged into the 79X combustion gas high-speed jet optimum pressure section, the oxidant is increased, and the cold turbine 8G exhaust pressure is increased. The output is maximized to the minimum, and the heat of 50x is injected into the 79X superheated steam high-speed jet optimum pressure section, the maximum vacuum is set to maximize the output of the thermal turbine 8G, the natural phenomenon is accelerated, and all of nitrogen, oxygen, CO2, etc. Mixing with seawater, supplying food and nutrients to the microorganisms in the seawater, increasing the microorganisms The water jet 79X water suction injection propulsion is aimed at aiming the digestion ability of the microorganisms tens of thousands of times in the forest, and the natural phenomenon is accelerated most efficiently. 2a Increase human food, aim for 10 times the speed of existing ships, and make various energy conservation cycle coalescing engines aiming for the prime of various medium and large water jet 79X screw ships 39D.

図7のウォータージェット79X水吸引噴射船舶38C駆動では、図2図3全動翼比重大物質重力太陽熱タービン8G必要台数具備し、図4太陽光加熱器2の変形を具備して、太陽光加熱の空気28aを1〜複数段熱ポンプ1Gと1〜複数段圧縮熱交換器2Cで、複数回圧縮高温にして複数回熱回収し、図2と同様に温熱50+冷熱28aに分割保存して、限り無く高圧大質量の温熱+冷熱によりウォータージェット79Xを駆動し、噴射推進の過程では、夫々の空気抽出器51を合流抽出器51として79X吸引出力を大幅に増大して、79X燃焼ガス高速噴射流最適圧力部に冷熱28aを吸引合流し、酸化剤を増大燃料燃焼出力を増大して、冷熱タービン8G排気圧力を最低に出力最大にし、79X過熱蒸気50高速噴射流最適圧力部には温熱50を吸引合流推進剤噴射質量を増大して、最高真空にして温熱タービン8G出力を最大にし、図6同様に自然現象高速化2a人類の食糧を増大して、既存船舶の10倍速度狙いとし、各種中大型ウォータージェット79X水吸引噴射船舶38C全盛狙う、各種エネルギ保存サイクル合体機関にする。   The water jet 79X water suction / injection ship 38C drive in FIG. 7 has the necessary number of gravity blades 8G of the total moving blade ratio critical material in FIG. 2, FIG. 3, and the solar heater 2 in FIG. 1 to the multistage heat pump 1G and 1 to the multistage compression heat exchanger 2C, the heat is recovered a plurality of times with multiple compression and high temperature, and divided and stored into the hot 50 + cold heat 28a as in FIG. The water jet 79X is driven by heat and cold of high pressure and mass without limitation, and in the process of injection propulsion, each air extractor 51 is used as a confluence extractor 51 to greatly increase the 79X suction output and 79X combustion gas high-speed injection The cold heat 28a is sucked and joined to the flow optimum pressure section, the oxidant is increased, the fuel combustion output is increased, the exhaust pressure of the cold turbine 8G is maximized, the 79X superheated steam 50 high speed injection flow optimum pressure section Increase the injection mass of suction combined propellant with the heat 50, maximize the output of the heat turbine 8G, maximize the output of the thermal turbine 8G, increase the natural phenomenon 2a as in Fig. 6, increase the human food, aim for 10 times the speed of existing ships And various medium-sized and large-sized water jet 79X water suction / injection ship 38C.

図8のウォータージェット79Z空気吸引噴射船舶38B駆動は、図2図3全動翼比重大物質重力太陽熱タービン8G必要台数具備し、図4太陽光加熱器2の変形を具備して、太陽光加熱の空気28aを1〜複数段熱ポンプ1Gと1〜複数段圧縮熱交換器2Cで、複数回圧縮高温にして複数回熱回収し、図2と同様に温熱50+冷熱28aに分割保存して、限り無く高圧大質量等の温熱50+冷熱28aによりウォータージェット79Zを駆動し、噴射推進の過程では、夫々の空気抽出器51を合流抽出器51として79Z吸引出力を大幅に増大して、79Z燃焼ガス高速噴射流最適圧力部にタービン排気冷熱28aを吸引合流し、酸化剤を増大燃料燃焼出力を増大して、冷熱タービン8G排気圧力を最低に回転出力を最大にし、79Z過熱蒸気50高速噴射流最適圧力部には温熱50を吸引合流推進剤噴射質量を増大して、最高真空にして温熱タービン8G回転出力を最大に増大し、図6同様に自然現象高速化2a人類の食糧を増大して、既存船舶の10倍速度狙いとし、各種中大型ウォータージェット79Z空気吸引噴射船舶38B全盛狙う、各種エネルギ保存サイクル合体機関にする。   The water jet 79Z air suction jet ship 38B drive of FIG. 8 is provided with the necessary number of all-blade specific gravity gravity solar turbines 8G in FIG. 2 and FIG. 1 to the multistage heat pump 1G and 1 to the multistage compression heat exchanger 2C, the heat is recovered a plurality of times with multiple compression and high temperature, and divided and stored into the hot 50 + cold heat 28a as in FIG. The water jet 79Z is driven by heat 50 + cold heat 28a such as high pressure and large mass without limitation, and in the process of injection propulsion, each air extractor 51 is used as a confluence extractor 51 to greatly increase the 79Z suction output and 79Z combustion gas The turbine exhaust cooling heat 28a is sucked and merged into the optimum high-speed jet flow pressure section, the oxidizer is increased, the fuel combustion output is increased, the exhaust pressure of the cooling turbine 8G is minimized, the rotational output is maximized, and the 79Z superheat In the optimum pressure portion of the gas 50 high-speed jet flow, the heat 50 is sucked and combined and the propellant injection mass is increased, the maximum vacuum is set and the thermal turbine 8G rotational output is maximized, and the natural phenomenon is accelerated as in FIG. Increase the amount of food, aiming at 10 times the speed of existing ships, and various energy conservation cycle coalescing engines aiming at the prime of various medium and large water jets 79Z air suction jet ship 38B.

図9のウォータージェット79Z空気吸引噴射スクリュー船舶39E駆動は、図2図3全動翼比重大物質重力太陽熱タービン8G必要台数具備し、図4太陽光加熱器2の変形を具備して、太陽光加熱の空気28aを1〜複数段熱ポンプ1Gと1〜複数段圧縮熱交換器2Cで、複数回圧縮高温にし、複数回熱回収して、図2と同様に温熱50+冷熱28aに分割保存し、全動翼比重大物質重力太陽熱タービン8Gでスクリュー7Cを駆動して、限り無く高圧大質量等の温熱50+冷熱28aによりウォータージェット79Zを駆動し、噴射推進の過程では、夫々の空気抽出器51を合流抽出器51として吸引出力を大幅に増大した79Zとして、79Z燃焼ガス高速噴射流最適圧力部に冷熱28aを吸引合流し、酸化剤を増大して、冷熱タービン8G排気圧力を最低に回転出力最大にし、79Z過熱蒸気50高速噴射流最適圧力部には温熱50を吸引合流推進剤噴射質量を増大して、最高真空にして温熱タービン8G回転出力を最大にし、図6同様に自然現象高速化2a人類の食糧を増大して、既存船舶の10倍速度狙いとし、各種中大型ウォータージェット79Z空気吸引噴射スクリュー船舶39E全盛狙う、各種エネルギ保存サイクル合体機関にする。   The water jet 79Z air suction / injection screw ship 39E drive of FIG. 9 is provided with the necessary number of all-blade specific gravity gravity solar turbines 8G in FIG. 2 and FIG. The heated air 28a is compressed and heated multiple times with 1 to multiple-stage heat pumps 1G and 1 to multiple-stage compression heat exchangers 2C, and heat is recovered multiple times, and divided and stored as hot 50 + cold 28a as in FIG. The blade 7C is driven by the all-blade ratio critical material gravity solar heat turbine 8G, and the water jet 79Z is driven by the hot 50 + cold heat 28a such as high pressure and large mass as much as possible. As a confluence extractor 51, the suction output is greatly increased to 79Z, and the cold heat 28a is sucked and combined into the optimum pressure portion of the 79Z combustion gas high-speed jet flow, the oxidant is increased, and the 8G exhaust pressure is set to the lowest rotational output, 79Z superheated steam 50 high-speed jet flow optimum pressure part is heated 50 to increase the suction merged propellant injection mass, maximum vacuum to maximize the thermal turbine 8G rotational output, As in FIG. 6, the natural phenomenon speed-up 2a increases human food, and aims at 10 times the speed of existing ships, and various energy storage cycle coalescing engines aiming at the prime of various medium and large water jets 79Z air suction jet screw ships 39E.

図10の合体機関噴射部78B太陽熱重力飛行機39A駆動は、飛行胴38a垂直翼38dを一体として、図2図3全動翼比重大物質重力太陽熱タービン8G必要台数選択使用し、図4太陽光加熱器2変形の翼前縁心38e空気吸入口28Bより空気28aを吸入の過程で、長レンズ2d熱吸収材2Bで構成の吸入空気路28Aで太陽光加熱の空気28aを加熱して、1〜複数段熱ポンプ1Gと1〜複数段圧縮熱交換器2Cで複数回圧縮高温にして複数回熱回収し、図2と同様に温熱50+冷熱28aに分割保存して、限り無く高圧大質量等の温熱50+冷熱28aを合体機関噴射部78Bに供給し、宇宙上昇時には既存ジェット機噴射圧力の10〜100倍圧力等で合体機関噴射部78Bに供給し、冷熱28aに燃料噴射燃焼外周の過熱蒸気50を加熱全部で10倍熱量等を噴射して、噴射推進出力を既存ジェット機の100〜1000倍に短時間近付けて宇宙に到達し、各種太陽熱重力飛行機39A類で燃料費0に近い宇宙利用全盛にして、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、大気中を飛行時には燃料費0や僅少として、噴射速度が真空で最大のため、既存宇宙ロケット地上大量噴射を最悪と考え、既存飛行機最高飛行高度で大出力ロケット推進し、宇宙に到達する。   The combined engine injection unit 78B solar gravity airplane 39A drive of FIG. 10 uses the flying body 38a vertical blade 38d as an integral unit, FIG. 2, FIG. In the process of sucking the air 28a from the air suction port 28B of the blade leading edge 38e of the vessel 2 deformed, the solar heating air 28a is heated in the suction air passage 28A constituted by the long lens 2d heat absorbing material 2B. Multiple-stage heat pump 1G and 1 to multiple-stage compression heat exchanger 2C are compressed multiple times to recover heat multiple times, and are divided and stored as hot 50 + cold 28a as in FIG. The hot 50 + cold heat 28a is supplied to the combined engine injection unit 78B, and is supplied to the combined engine injection unit 78B at a pressure of 10 to 100 times the existing jet injection pressure when the universe rises. 50 is heated to inject 10 times the amount of heat, etc., and the propulsion propulsion power reaches 100 to 1000 times that of existing jets in a short time to reach the space. It makes it possible to make day trips anywhere on the earth, such as 16 rounds of the earth a day, with zero or little fuel cost when flying in the atmosphere, and because the injection speed is maximum in vacuum, mass injection over existing space rockets is possible. Think of it as the worst, propelling high-power rockets at the highest flight altitude of existing airplanes and reaching space.

宇宙到達時には全動翼比重大物質重力冷熱タービン8G駆動の過程で、空気路入口28Bを密閉した空気路28Aとして、120度前後直射太陽光を長レンズ2d熱吸収材2Bで構成の吸入空気路28Aで空気28aを加熱し、宇宙では最も効率良く温熱50+冷熱28aを製造貯蔵して、宇宙での噴射推進は過熱蒸気50による噴射推進とし、宇宙での圧縮空気28aは過熱蒸気50の製造に使用して、タービン8G1〜複数段熱ポンプ1G駆動として長距離の宇宙旅行を可能にし、地球帰還時には摩擦熱を含む高圧高温空気28aを吸入圧縮熱交換する熱製造にして、圧縮空気28a冷熱で冷熱タービン8Gを駆動し、その排気を合流抽出器51と合体機関噴射部78B酸化剤の最適圧力部で吸引合流して、酸化剤で使用すると共に、過熱蒸気50排気も同様に合流して推進剤噴射質量を増大し、78B超高速流速で温熱タービン8G排気室を最高真空として、酸化剤に燃料噴射着火燃焼噴射推進出力の増大にし、既存ジェット機の10〜100倍圧力1/10噴射熱量10倍噴射推進出力大型化等として、合体機関噴射部78B円筒回転部77Gを180度以上回転して、逆噴射や垂直上昇垂直降下を可能にし、宇宙利用やビルの屋上や月面等何処でも飛行場にする、各種エネルギ保存サイクル合体機関にする。 In the process of driving the all-blade ratio critical material gravity cooling / heating turbine 8G when reaching the space, the air passage 28A is used as the air passage 28A in which the air passage inlet 28B is hermetically sealed, and the direct intake sunlight is composed of the long lens 2d and the heat absorbing material 2B. The air 28a is heated by 28A, and the hot 50 + cold 28a is produced and stored most efficiently in the universe. The propulsion in space is propulsion by the superheated steam 50, and the compressed air 28a in space is used to produce the superheated steam 50. Using the turbine 8G1 to drive the multi-stage heat pump 1G, a long-distance space travel is possible, and when returning to the earth, high-pressure high-temperature air 28a including frictional heat is converted into heat for suction and compression, and compressed air 28a The cold turbine 8G is driven, and the exhaust gas is sucked and merged at the optimum pressure portion of the merging extractor 51 and the combined engine injection unit 78B oxidant and used as an oxidant. The steam 50 exhaust also merges to increase the propellant injection mass, the thermal turbine 8G exhaust chamber is set to the highest vacuum at an ultra-high speed flow rate of 78B, the fuel injection ignition combustion injection propulsion output is increased to the oxidant, and the existing jet 10 ~ 100 times pressure 1/10 injection heat quantity 10 times injection propulsion output enlargement, etc. Rotate the combined engine injection part 78B cylindrical rotation part 77G more than 180 degrees to enable reverse injection and vertical ascending vertical descent, The energy conservation cycle will be combined into an airfield anywhere on the rooftop of the building or on the moon.

図11の合体機関噴射部78B太陽熱重力回転飛行機39Bの、噴射推進出力の発生は前記図10と同様として、図2図3全動翼比重大物質重力太陽熱タービン8G必要台数でプロペラ7A又は回転翼7B駆動にし、熱製造を図10と同様に太陽光加熱の空気28aを1〜複数段熱ポンプ1Gと1〜複数段圧縮熱交換器2Cで、複数回圧縮高温にして複数回熱回収し、図2と同様に温熱50+冷熱28aに分割保存して、限り無く高圧大質量等の温熱50+冷熱28aを合体機関噴射部78Bに供給し、宇宙上昇時には既存ジェット機噴射圧力の10〜100倍圧力等で合体機関噴射部78Bに供給し、冷熱28aに燃料噴射燃焼外周の過熱蒸気50を加熱全部で10倍熱量等を噴射して、噴射推進出力を既存ジェット機の100〜1000倍に短時間近付けて宇宙に到達し、各種噴射推進太陽熱重力回転飛行機39B類で燃料費0に近い宇宙利用全盛にして、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、大気中を飛行時には燃料費0や僅少のプロペラ7A飛行や回転翼7B飛行として、噴射速度が真空で最大のため既存宇宙ロケット地上大量噴射を最悪と考え、既存飛行機最高飛行高度で大出力ロケット推進宇宙に到達する。   The combined propulsion engine 78B solar gravity rotary airplane 39B shown in FIG. 11 generates the propulsion propulsion output in the same manner as in FIG. 10, and FIG. 7B drive, heat production in the same manner as in FIG. 10, solar heating air 28a is compressed multiple times with 1 to multiple stage heat pump 1G and 1 to multiple stage compression heat exchanger 2C, and heat is recovered multiple times, As in FIG. 2, the heat 50 + cold heat 28a is divided and stored, and the heat 50 + cold heat 28a such as high pressure and large mass is supplied to the combined engine injection unit 78B. Is supplied to the combined engine injection section 78B, and the superheated steam 50 on the outer periphery of the fuel injection combustion is heated to the cold heat 28a to inject 10 times the amount of heat and the like, and the injection propulsion output is 100 to 1000 of the existing jet aircraft. To reach the space in a short period of time, make a space use prime near zero fuel cost with various jet propulsion solar thermal gravity rotating airplanes 39B, etc., enabling day trips anywhere on the earth, such as 16 rounds of the earth a day, When flying in the atmosphere, zero fuel costs and a slight propeller 7A flight or rotor wing 7B flight, the jet speed is the highest in vacuum, so the existing space rocket ground mass injection is considered the worst, and high power rocket propulsion at the highest flight altitude of the existing airplane Reach the universe.

宇宙到達時には全動翼比重大物質重力冷熱タービン8G駆動の過程で、空気路入口28Bを密閉した空気路28Aとし、図10と同様に熱回収過熱蒸気推進剤製造を繰り返して、過熱蒸気推進剤を限り無く増大し、宇宙では過熱蒸気50を最も効率良く製造貯蔵する1〜複数段熱ポンプ1Gや太陽光加熱にして、宇宙での噴射推進は過熱蒸気50による噴射推進とし、宇宙での圧縮空気28aは過熱蒸気50の製造に使用して、タービン8Gで1〜複数段熱ポンプ1G駆動として長距離の宇宙旅行を可能にし、地球帰還時には摩擦熱を含む高圧高温空気28aを吸入圧縮熱交換する熱製造にして、圧縮空気28a冷熱で冷熱タービン8Gを駆動し、その排気を合流抽出器51と合体機関噴射部78B酸化剤の最適圧力部で吸引合流して、酸化剤で使用すると共に過熱蒸気排気も同様に合流推進剤噴射質量を増大し、78B超高速流速で温熱タービン8G排気室を最高真空として、酸化剤に燃料噴射着火燃焼噴射推進出力の増大にし、既存ジェット機の10〜100倍圧力1/10噴射熱量10倍噴射推進出力大型化等として、合体機関噴射部78B円筒回転部77Gを180度以上回転して、逆噴射や垂直上昇垂直降下を可能にし、宇宙利用やビルの屋上や月面等何処でも飛行場にする、各種エネルギ保存サイクル合体機関にする。 At the time of reaching the space, in the process of driving the all-blade ratio critical material gravity cooling and heating turbine 8G, the air passage inlet 28B is changed to the sealed air passage 28A, and the heat recovery superheated steam propellant production is repeated as in FIG. In the space, the superheated steam 50 is most efficiently produced and stored in the 1-multistage heat pump 1G or solar heating, and the propulsion in space is propulsion by the superheated steam 50, and compression in space The air 28a is used for the production of superheated steam 50, and enables a long-distance space travel as a 1-8 multi-stage heat pump 1G driven by the turbine 8G. Then, the cooling turbine 8G is driven by the cold air of the compressed air 28a, and the exhaust gas is sucked and merged at the optimum pressure portion of the merging extractor 51 and the combined engine injection unit 78B oxidant to oxidize. In the same way, superheated steam exhaust also increases the combined propellant injection mass, makes the thermal turbine 8G exhaust chamber the highest vacuum at an ultra-high speed flow rate of 78B, and increases the fuel injection ignition combustion injection propulsion output to the oxidizer. 10 to 100 times pressure 1/10 injection heat quantity 10 times injection propulsion output enlargement, etc., the combined engine injection part 78B cylindrical rotation part 77G is rotated 180 degrees or more to enable reverse injection and vertical ascending vertical descent. Use it as an airfield wherever it is used, on the rooftop of the building, or on the moon, and combine it with various energy conservation cycle engines.

図12の水吸引ウォータージェット79Uは、図2図3冷熱海水混合器2Hや冷熱回収器103等に変えて使用して、過熱蒸気制御弁25を開放分割保存した過熱蒸気50を、燃焼器1Y外周の過熱蒸気溜95cの最上流(図を改良)に供給し、燃焼ガス制御弁24乃至圧縮空気制御弁24Aを開放し、200度前後24〜400MPa燃焼ガス49を燃焼ガス溜95a燃焼器1Yの最上流に供給して、燃料制御弁25b開放図に無い燃料噴射ポンプ1Dより、燃料管1bの最適温度燃料を燃料噴射ノズル6Xより噴射し、燃焼器1Y最上流で着火燃焼外周の過熱蒸気50を加熱して燃焼温度を加熱分上昇して、外周過熱蒸気溜95cの400度前後過熱蒸気50を600〜900度等に加熱、双方の噴射出力を増大し、燃焼器1Y複数の燃焼ガス噴射ノズル6Yを環状に過熱蒸気溜95c外周に具備して、1段燃焼噴射流の中に夫々環状に具備した複数燃料噴射ノズル6Xより、燃料管1b温度管理最適温度の燃料を噴射2段燃焼器複数最適距離環状燃焼にし、過熱蒸気50を外周より最適距離環状加熱過熱蒸気温度を600〜900度等にして、過熱蒸気容積の増大により噴射速度を増大して燃焼ガス吸引出力を増大し、過熱蒸気50の大膨張速度とスクラムジェットの高速燃焼を合体したウォータージェット79Uとして、超高圧大質量の冷熱に燃料噴射着火燃焼し、燃料燃焼量の最大と噴射速度の最大にする。 The water suction water jet 79U in FIG. 12 is used instead of the cold / hot seawater mixer 2H, the cold / heat recovery unit 103, etc. in FIG. 2, and the superheated steam 50 in which the superheated steam control valve 25 is stored in an open divided state is used as the combustor 1Y. Supply to the uppermost stream (improvement of the figure) of the superheated steam reservoir 95c on the outer periphery, open the combustion gas control valve 24 to the compressed air control valve 24A, and convert the combustion gas reservoir 49a around the 200 degrees 24-400 MPa combustion gas 49 to the combustion gas reservoir 95a combustor 1Y The fuel control valve 25b is supplied to the most upstream side of the fuel control pump 25b and the fuel injection pump 1D (not shown) injects the optimum temperature fuel in the fuel pipe 1b from the fuel injection nozzle 6X. 50, the combustion temperature is increased by the amount of heating, the superheated steam 50 around 400 degrees in the peripheral superheated steam reservoir 95c is heated to 600 to 900 degrees, etc., both the injection outputs are increased, and the plurality of combustors 1Y The gas injection nozzle 6Y is annularly provided on the outer periphery of the superheated steam reservoir 95c, and the fuel pipe 1b is temperature-controlled at the optimum temperature from the plurality of fuel injection nozzles 6X provided annularly in the first stage combustion injection flow. Combustor multiple optimal distance annular combustion, superheated steam 50 from the outer periphery, optimal distance annular heating superheated steam temperature 600-900 degrees, etc., increase the superheated steam volume, increase the injection speed and increase the combustion gas suction output As a water jet 79U that combines the large expansion speed of the superheated steam 50 and the high-speed combustion of the scramjet, the fuel injection is ignited and burned to the ultrahigh pressure and mass of the cold to maximize the fuel combustion amount and the injection speed.

2段燃焼で外周から3段燃焼以後も燃料管1bの高温燃焼部通過を僅少として、過熱蒸気50噴射流を内部と外部から燃焼ガス49で環状加熱し、過熱蒸気50の最高温度噴射と理論空燃比燃焼可能に4段燃焼等複数燃焼を可能にして、大気圧100度真空では絶対0度に近付く過熱蒸気温度を内部と外部から環状加熱600〜900度等とし、過熱蒸気50容積を水の5000倍前後にして、噴射出力と燃焼ガス吸引出力を最大に増大、過熱蒸気噴射ノズル6Aと燃焼ガス噴射ノズル6Yより最大速度噴射し、前方の水を吸引する出力を最大に増大して水を吸引噴射して、過熱蒸気50と燃焼ガス49の噴射推進出力を最大に増大し、水吸引噴射ウォータージェット79Uの噴射推進出力を最大にして、海中に窒素や酸素やCO2等全部の栄養分を超高速供給混合溶解する速度を最大にし、自然現象高速化2a人類の食糧を増大して、各種中大型船舶速度を既存船舶の10倍等に増大水抵抗僅少2bする。 Even after the third stage combustion from the outer periphery in the two-stage combustion, the passage of the high-temperature combustion part of the fuel pipe 1b is made small, and the superheated steam 50 injection flow is annularly heated by the combustion gas 49 from the inside and the outside, and the maximum temperature injection of the superheated steam 50 and the theory Enables multiple combustion such as four-stage combustion so that air-fuel ratio combustion is possible, the superheated steam temperature approaching 0 degree absolute at 100 degree atmospheric pressure vacuum is set to 600-900 degrees annular heating from inside and outside, and 50 volumes of superheated steam is water The injection output and the combustion gas suction output are increased to the maximum, the maximum speed injection is performed from the superheated steam injection nozzle 6A and the combustion gas injection nozzle 6Y, and the output for sucking water in front is increased to the maximum. , The injection propulsion output of the superheated steam 50 and the combustion gas 49 is maximized, the injection propulsion output of the water suction jet water jet 79U is maximized, and all of nitrogen, oxygen, CO2 etc. The rate of ultrafast feed mixture dissolved nutrients to maximize, to increase food phenomenal speed 2a mankind, increases water resistance insignificant 2b large vessels speed in various 10x of existing vessels.

図13の水吸引ウォータージェット79Xは、図2図3冷熱海水混合器2Hや冷熱回収器103等に変えて使用して、過熱蒸気制御弁25を開放分割保存した過熱蒸気50を、燃焼器1Y外周の過熱蒸気溜95cの最上流に供給し、燃焼ガス制御弁24乃至圧縮空気制御弁24Aを開放し、200度前後24〜400MPa燃焼ガス49冷熱28aを燃焼ガス溜95a燃焼器1Yの最上流に供給して、燃料制御弁25b開放図に無い燃料噴射ポンプ1Dより燃料管1b燃料を燃料噴射ノズル6Xより噴射し、燃焼器1Y最上流で着火燃焼外周の過熱蒸気50を加熱して燃焼温度を加熱分以上等上昇して、外周過熱蒸気溜95cの過熱蒸気50を600〜900度等に加熱双方の噴射出力を増大し、燃焼器1Y複数の燃焼ガス噴射ノズル6Yを環状に過熱蒸気溜95c内に環状具備して、1段燃焼噴射流の中に夫々の燃料噴射ノズル6Xより、燃料噴射2段燃焼器や3段燃焼器以後複数段燃焼器最適距離環状燃焼にし、2段燃焼以後は燃料管1bの燃料温度最適噴射を可能に具備して、燃料噴射燃焼理論空燃比燃焼を可能にします。 The water suction water jet 79X of FIG. 13 is used instead of the cold / hot seawater mixer 2H, the cold / heat recovery unit 103, etc. of FIG. 2, and the superheated steam 50 in which the superheated steam control valve 25 is kept open is stored in the combustor 1Y. It is supplied to the uppermost stream of the superheated steam reservoir 95c on the outer periphery, the combustion gas control valve 24 to the compressed air control valve 24A are opened, and the cooling heat 28a of about 24 to 400 MPa combustion gas 49 around 200 degrees is fed to the uppermost stream of the combustion gas reservoir 95a combustor 1Y. The fuel control valve 25b is opened and the fuel pipe 1b fuel is injected from the fuel injection pump 1D not shown, and the superheated steam 50 on the outer periphery of the ignition combustion is heated in the uppermost stream of the combustor 1Y to burn the combustion temperature. And the like, and the heating power of the superheated steam 50 in the outer peripheral superheated steam reservoir 95c is increased to 600 to 900 degrees or the like. In the superheated steam reservoir 95c, an annular combustion is provided in the single-stage combustion injection flow from the respective fuel injection nozzles 6X. After the second stage combustion, the fuel pipe 1b can be optimally injected with fuel temperature, enabling fuel injection combustion theoretical air-fuel ratio combustion.

大気中100度真空中絶対0度に近付く過熱蒸気50を外周や内周より最適距離環状加熱して、過熱蒸気50温度を600〜900度等にして、過熱蒸気容積の増大により噴射速度を増大して燃焼ガス吸引出力を増大し、過熱蒸気の大膨張速度とスクラムジェットの高速燃焼を合体したウォータージェット79Xとして、超高圧大質量の冷熱28aに燃料噴射着火燃焼し、燃料燃焼量の最大と過熱蒸気50容積を水の5000倍前後等噴射速度の最大にして、過熱蒸気噴射出力と燃焼ガス吸引出力を最大に増大噴射し、過熱蒸気噴射ノズル6Aと燃焼ガス噴射ノズル6Yより最大速度噴射して、前方の水を吸引噴射するウォータージェット79X水吸引噴射出力を最大にし、海中に窒素や酸素やCO2等の栄養分を供給する自然現象高速化2a人類の食糧を増大して、各種中大型船舶速度を既存船舶の10倍等に増大水抵抗僅少2bにする。 The superheated steam 50 approaching absolute 0 degree in the atmosphere at 100 degrees in vacuum is annularly heated from the outer circumference and the inner circumference at the optimum distance, the temperature of the superheated steam 50 is set to 600 to 900 degrees, and the injection speed is increased by increasing the superheated steam volume. As a water jet 79X that combines the large expansion speed of superheated steam and the high-speed combustion of the scramjet, the fuel injection ignition combustion is performed on the cold heat 28a having an ultra-high pressure and a large mass. The superheated steam 50 volume is set to a maximum of about 5000 times the injection speed of water, the superheated steam injection output and the combustion gas suction output are increased to the maximum, and the maximum speed injection is performed from the superheated steam injection nozzle 6A and the combustion gas injection nozzle 6Y. Water jet 79X that sucks and jets water in front and maximizes water suction and jet output, and speeds up natural phenomena that supply nutrients such as nitrogen, oxygen, and CO2 into the sea 2 To increase the food of mankind, to increase water resistance insignificant 2b a large ship speed in the various 10-fold of existing vessels.

図14の空気吸引ウォータージェット79Sは、図12の水吸引ウォータージェット79Uの水吸引を空気吸引にし、海中に窒素や酸素やCO2等の栄養分を大幅に増大噴射して、海水52aに混合する部分を最適長さとし、海水空気混合部を追加して海中に栄養分を超高速供給混合して、図12と同様に自然現象高速化2a人類の食糧を大増大し、各種中大型船舶速度を既存船舶の10倍等に増大水抵抗僅少2bにする。 The air suction water jet 79S shown in FIG. 14 is a portion where the water suction of the water suction water jet 79U shown in FIG. 12 is changed to air suction, and nutrients such as nitrogen, oxygen and CO 2 are greatly increased and injected into the sea and mixed with the sea water 52a. Is the optimum length, the seawater air mixing part is added and the nutrients are supplied and mixed at ultra high speed in the sea, and the natural phenomenon is accelerated as in Fig. 12a. Increase the water resistance to 2b, which is 10 times greater than

図15の空気吸引ウォータージェット79Tは、図14の空気吸引ウォータージェット79Sにアフターバーナー6X複数を追加して、吸引空気28a流に燃料噴射し冷熱28a燃焼流6Yに合流燃焼し、燃料燃焼量を大増大して海中に窒素や酸素やCO2等の栄養分を大幅に増大噴射して、図14と同様に海水52aに混合する部分を最適長さとし、海水52a空気28a混合部を追加して海中に栄養分を超高速供給混合して、自然現象高速化2a人類の食糧を大増大し、各種中大型船舶速度を既存船舶の10倍等に増大水抵抗僅少2bにする。 The air suction water jet 79T of FIG. 15 adds a plurality of afterburners 6X to the air suction water jet 79S of FIG. 14, injects fuel into the suction air 28a flow, and joins and burns the cold heat 28a combustion flow 6Y, thereby increasing the amount of fuel combustion. Increase the amount of nutrients such as nitrogen, oxygen, CO2 and so on into the sea to increase the optimum length for mixing with seawater 52a as in FIG. 14, and add seawater 52a air 28a mixing part to the sea The natural phenomenon speed-up 2a greatly increases human food, increases the speed of various medium and large-sized ships to 10 times the existing ship, and makes the water resistance very low 2b.

図16の空気吸引ウォータージェット79Yは、図13の水吸引ウォータージェット79Xの水吸引を空気吸引にして、海中に窒素や酸素やCO2等の栄養分を大幅に増大海水52aに混合する部分を最適長さとし、海水52a空気28a混合部を追加して海中に栄養分を超高速供給混合して、自然現象高速化2a人類の食糧を大増大して、各種中大型船舶速度を既存船舶の10倍等に増大水抵抗僅少2bにする。 The air suction water jet 79Y shown in FIG. 16 uses the water suction of the water suction water jet 79X shown in FIG. 13 as air suction, greatly increasing the nutrients such as nitrogen, oxygen, and CO2 into the sea, and mixing the seawater 52a with the optimum length. In addition, the seawater 52a air 28a mixing part is added and the nutrients are supplied and mixed in the sea at an ultra-high speed, the natural phenomenon speeds up 2a. Increase water resistance to 2b.

図17の空気吸引ウォータージェット79Zは、図16空気吸引ウォータージェット79Yにアフターバーナー6X複数を追加して、吸引空気28a流に燃料噴射し冷熱28a燃焼流6Yに合流燃焼し、燃料燃焼量を大増大して海中に窒素や酸素やCO2等の栄養分を大幅に増大噴射して、図16と同様に海水52aに混合する部分を最適長さとし、海水52a空気28a混合部を追加して海中に栄養分を超高速供給混合して、自然現象高速化2a人類の食糧を大増大し、各種中大型船舶速度を既存船舶の10倍等に増大水抵抗僅少2bにする。 The air suction water jet 79Z in FIG. 17 adds a plurality of afterburners 6X to the air suction water jet 79Y in FIG. 16, injects fuel into the suction air 28a flow, and joins and burns the cold heat 28a combustion flow 6Y, greatly increasing the amount of fuel combustion Then, the nutrients such as nitrogen, oxygen and CO2 are greatly increased and injected into the sea, and the part mixed with the seawater 52a is set to the optimum length as in FIG. 16, and the seawater 52a air 28a mixing part is added to add the nutrients into the sea. Super high speed feed mixing, natural phenomenon speeding up 2a Mankind's food is greatly increased, speed of various medium and large ships is increased to 10 times that of existing ships and water resistance is reduced to 2b.

図18の合体機関噴射部78Wは、図12の水吸引ウォータージェット79Uの水吸入を空気吸入にして、合体機関噴射部78Wとし、宇宙上昇の場合は1〜複数段熱ポンプ1Gで複数回圧縮して、1〜複数段圧縮熱回収器2Cで複数回燃料噴射燃焼複数回熱回収し、限り無く高圧の燃焼ガス49酸化剤と過熱蒸気50推進剤を貯蔵限り無く増大して、燃焼ガス制御弁24を開放し、200度前後24〜400MPa燃焼ガス49を燃焼ガス溜95a燃焼器1Yの最上流に供給して、燃料制御弁25b開放、図に無い燃料噴射ポンプ1Dにより燃料管1b燃料を燃料噴射ノズル6Xより噴射し、燃焼器1Y最上流で着火燃焼外周の過熱蒸気50を加熱燃焼温度上昇して、外周長大な過熱蒸気溜95cの400度前後24〜400MPa過熱蒸気50を加熱双方の噴射出力を増大し、燃焼器1Yの複数燃焼ガス噴射ノズル6Yを過熱蒸気溜95c内部より外部に環状に具備して、複数1段噴射燃焼流の燃料噴射ノズル6Xより燃料噴射2段燃焼器複数最適距離環状燃焼にし、過熱蒸気50を外周より加熱噴射出力と燃焼ガス吸引出力を増大します。 The combined engine injection unit 78W in FIG. 18 uses the water suction of the water suction water jet 79U in FIG. 12 as air suction to form a combined engine injection unit 78W. Then, 1 to multiple stage compression heat recovery unit 2C recovers heat multiple times by fuel injection combustion multiple times, and unlimited increase in high pressure combustion gas 49 oxidant and superheated steam 50 propellant, storage gas control The valve 24 is opened, and a combustion gas 49 of about 200 to 24 degrees Celsius is supplied to the uppermost stream of the combustion gas reservoir 95a, and the fuel control valve 25b is opened. The fuel injection pump 1D (not shown) supplies the fuel pipe 1b fuel. It is injected from the fuel injection nozzle 6X, the heating combustion temperature of the superheated steam 50 at the outer periphery of the ignition combustion is increased in the uppermost stream of the combustor 1Y, and the superheated steam reservoir 95c having a long outer periphery is about 400 degrees around 24 to 400 MPa. 50, both the heating output of the combustion chamber 1Y are increased, and a plurality of combustion gas injection nozzles 6Y of the combustor 1Y are provided annularly from the inside of the superheated steam reservoir 95c, and fuel is injected from the fuel injection nozzle 6X of the plurality of single-stage injection combustion flows. Two-stage combustor multi-optimal annular combustion is used to increase the heating injection output and combustion gas suction output of superheated steam 50 from the outer periphery.

2段燃焼ガス燃焼流に複数の燃焼ガス噴射ノズル6Yを具備し、夫々の燃料噴射ノズル6Xより燃料噴射3段燃焼器複数最適距離環状燃焼にして、過熱蒸気50噴射流を内周と外周から環状加熱し、大質量冷熱利用必要に応じて同様に4段燃焼以後複数燃焼にして、大気圧では100度Cに近付き真空では絶対0度に近付く過熱蒸気を500度以上等とし、既存ジェット機の10〜100倍圧力10倍質量噴射の安価な噴射出力にして、過熱蒸気50の低温噴射大膨張速度と燃焼ガス49の高温ロケット噴射を合体し、夫々の長所を利用最良の組み合わせにした理論最良の合体機関噴射部78Wとして、スクラムジェットの高速燃焼+蒸気タービンの高圧噴射大膨張速度+ロケットの真空飛行を合体し、大気中を通常飛行時には3.6万倍仕事率に近いタービン8Gで燃料費0飛行狙いとして、推進剤と酸化剤を保存増大し、主として過熱蒸気50による噴射推進として、宇宙上昇準備の地球温暖化防止推進とし、円筒回転部77Gを180度以上回転して垂直上昇や垂直降下や逆噴射を可能にして、何処でも飛行場や1日に地球を16周する等宇宙利用全盛にし、地球上何処でも日帰り旅行等を可能にする。 A plurality of combustion gas injection nozzles 6Y are provided in the two-stage combustion gas combustion flow, and the fuel injection three-stage combustor multi-optimal distance annular combustion is performed from each fuel injection nozzle 6X, so that the superheated steam 50 injection flow is generated from the inner periphery and the outer periphery. In the same way, if necessary, use high-mass cold heat. If necessary, use four-stage combustion and then multiple combustion, and make the superheated steam close to 100 ° C at atmospheric pressure and close to 0 ° C in vacuum, over 500 ° C. 10 to 100 times pressure 10 times mass injection low-cost injection output, combined with low-temperature injection large expansion speed of superheated steam 50 and high-temperature rocket injection of combustion gas 49, the best combination of the best use of each advantage Combined with high-speed combustion of scramjet + high-pressure injection large expansion speed of steam turbine + vacuum flight of rocket, the combined engine injection part 78W is 36,000 times the normal flight in the atmosphere With the turbine 8G close to the rate, the propellant and oxidant are conserved and increased, aiming at zero fuel cost flight, mainly as the propulsion propulsion by the superheated steam 50, as the prevention of global warming to prepare for space rise, and the cylindrical rotating part 77G is 180 degrees By rotating as described above, vertical ascent, vertical descent, and reverse injection are possible, and everywhere on the earth, it is possible to make day trips, etc. anywhere on the earth, such as airfields and 16 rounds of the earth per day.

図19の合体機関噴射部78Vは、図18合体機関噴射部78Wにアフターバーナー6X複数を追加して、吸引空気28a流に燃料噴射し冷熱28a燃焼流6Yに合流燃焼し、燃料燃焼量大増大噴射推進出力を大増大して、合体機関噴射部78V超高圧超大質量の冷熱28a燃焼流6Yに合流燃焼して短時間宇宙到達にし、既存ジェット機の10〜100倍圧力10倍質量噴射1000倍噴射推進出力狙いにして、円筒回転部77Gを180度以上回転し、垂直上昇や垂直降下や逆噴射を可能にして、何処でも飛行場や1日に地球を16周する等宇宙利用全盛にし、地球上何処でも日帰り旅行等を可能にする。 A combined engine injection unit 78V in FIG. 19 adds a plurality of afterburners 6X to the combined engine injection unit 78W in FIG. 18, injects fuel into the suction air 28a flow, combines and burns into the cold 28a combustion flow 6Y, and increases the fuel combustion amount. The propulsion output is greatly increased, and the combined engine injection unit 78V super high pressure super large mass cold heat 28a combustion flow 6Y is combined and burned to reach space for a short time, 10 to 100 times pressure 10 times mass injection 1000 times injection propulsion of existing jet aircraft With the aim of output, the cylindrical rotating part 77G can be rotated 180 degrees or more to enable vertical ascent, vertical descent, and reverse injection. But it makes day trips possible.

図20の合体機関噴射部78Aは、図16空気吸引ウォータージェット79Yの水吸引噴射部を削除して、合体機関噴射部78Aを構成、図16同様に1段燃焼器1Yにより過熱蒸気50を内周より環状加熱し、2段燃焼器1Yや3段燃焼器1Yや4段燃焼器1Y等、用途に合わせた複数段燃焼器1Yにより、過熱蒸気50を内周と外周より環状加熱して、合体機関噴射部78A超高圧超大質量の冷熱28a燃焼流6Yに燃料噴射燃焼して短時間宇宙到達とし、既存ジェット機の10〜100倍圧力10倍質量噴射1000倍噴射推進出力狙いにして、円筒回転部77Gを180度以上回転し、垂直上昇や垂直降下や逆噴射を可能にして、何処でも飛行場や1日に地球を16周する等宇宙利用全盛にし、地球上何処でも日帰り旅行等を可能にする。 The union engine injection unit 78A in FIG. 20 deletes the water suction injection unit of the air suction water jet 79Y in FIG. 16 to form the union engine injection unit 78A. Similarly to FIG. 16, the superheated steam 50 is contained in the first stage combustor 1Y. The superheated steam 50 is annularly heated from the inner periphery and the outer periphery by a multi-stage combustor 1Y suitable for the application, such as a two-stage combustor 1Y, a three-stage combustor 1Y, and a four-stage combustor 1Y. Combined engine injection part 78A Ultra high pressure super large mass cold heat 28a combustion flow 6Y fuel injection combustion to reach the space in a short time, cylinder rotation with the aim of 10 to 100 times pressure 10 times mass injection 1000 times injection propulsion output of existing jet aircraft Rotate part 77G more than 180 degrees to enable vertical ascent, vertical descent, and reverse injection, to make the best use of space anywhere such as airfield and 16 laps of the earth every day, enabling day trips anywhere on earth That.

図21の合体機関噴射部78Bは、図20の合体機関噴射部78Aに複数のアフターバーナー6Xを追加して、合体機関噴射部78Bを構成、図20同様に1段燃焼器1Yにより過熱蒸気50を内周より環状加熱し、2段燃焼器1Yや3段燃焼器1Yや4段燃焼器1Y等、用途に合わせた複数段燃焼器1Yにより、過熱蒸気50を内周と外周より環状加熱して、合体機関噴射部78B超高圧超大質量の冷熱28a燃焼流6Yに燃料噴射燃焼し、更に空気28a吸引噴射流に複数のアフターバーナー6Xを具備して、燃料噴射して冷熱28a燃焼流6Yに合流着火燃焼大幅な燃料燃焼量追加とし、超高圧超大質量冷熱28a利用で短時間宇宙に到達して、既存ジェット機の10〜100倍圧力10倍質量噴射1000倍噴射推進出力狙いにし、円筒回転部77Gを180度以上回転して垂直上昇や垂直降下や逆噴射を可能にして、何処でも飛行場や1日に地球を16周する等宇宙利用全盛にし、地球上何処でも日帰り旅行等を可能にする。 A combined engine injection unit 78B in FIG. 21 is configured by adding a plurality of afterburners 6X to the combined engine injection unit 78A in FIG. 20 to form a combined engine injection unit 78B. Similarly to FIG. 20, the superheated steam 50 is generated by the first-stage combustor 1Y. Annular heating is performed from the inner periphery, and the superheated steam 50 is annularly heated from the inner periphery and the outer periphery by a multi-stage combustor 1Y such as a two-stage combustor 1Y, a three-stage combustor 1Y, or a four-stage combustor 1Y. The combined engine injection part 78B is superheated and burned into the high-pressure, ultra-high-mass cold 28a combustion stream 6Y, and further provided with a plurality of afterburners 6X in the air 28a suction-injection stream. Combustion significant fuel combustion amount addition, reach the space for a short time by using ultra high pressure super large mass cold 28a, aiming for 10 to 100 times pressure 10 times mass injection 1000 times injection propulsion output of existing jet aircraft, Rotate the cylinder rotation part 77G more than 180 degrees to enable vertical ascent, vertical descent, and reverse injection, to make the best use of space, such as airfields and 16 laps of the earth every day, day trips anywhere on the earth enable.

理論最良タービンを全動翼比重大物質重力タービン8Gや、全動翼比重大物質重力冷熱タービン8Gや、全動翼比重大物質重力温熱タービン8G等として、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3.6万倍に近付け、発電機や船舶を駆動自然現象高速化2aして窒素や酸素やCO2等の栄養分を海水に供給し、微生物や植物プランクトンや海草等を増殖して、食物連鎖等により魚類やコンブ類等人類の食糧を増大し、各種中大型船舶速度を既存船舶の10倍速度等水抵抗僅少2bにするため、既存火力原子力発電や既存船舶を0に近付けて、人類絶滅を阻止する可能性が強い。 Theoretical best turbine is the all blade ratio critical material gravity turbine 8G, all blade ratio critical material gravity cooling / heating turbine 8G, all blade ratio critical material gravity thermal turbine 8G, etc. m / sec is close to 36,000 times that of existing steam turbine power generation, driving generators and ships, speeding natural phenomena 2a, supplying nutrients such as nitrogen, oxygen and CO2 to seawater, In order to multiply seaweeds, increase food for human beings such as fish and kombu through food chains, etc., and to make the speed of various medium and large ships 10 times faster than existing ships, water resistance is as low as 2b. There is a strong possibility of bringing the ship close to 0 and preventing the extinction of mankind.

太陽光加熱の空気を1〜複数段熱ポンプ1Gで複数回吸入複数回圧縮複数回熱回収し、24〜400MPa等の温熱50+冷熱28aで保存使用し、タービン駆動や合体機関噴射部駆動やウォータージェット駆動して、発電機や飛行機や船舶を駆動するため、CO2排気0発電全盛や太陽熱重力飛行機全盛や太陽熱重力船舶全盛にする可能性があり、発電量は既存世界の発電量の10倍前後になる可能性がある、船舶速度は燃料費僅少として既存船舶の10倍速度前後水抵抗僅少2bになる可能性が強く、飛行機類は垂直上昇や垂直降下や逆噴射を可能にして、何処でも飛行場や1日に地球を16周する等宇宙利用全盛にし、地球上何処でも日帰り旅行等を可能にする可能性がある。 Solar-heated air is sucked multiple times with 1 to multiple-stage heat pump 1G, recovered multiple times, and heat is recovered multiple times, and stored and used as hot heat 50 + cold heat 28a such as 24-400 MPa, turbine drive, combined engine injection unit drive and water Because it drives a generator, airplane and ship by jet driving, there is a possibility of CO2 exhaust zero generation prime, solar thermal gravity airplane prime and solar thermal gravity ship prime, and the power generation amount is about 10 times that of the existing world. There is a strong possibility that the ship speed will be about 10 times the speed of the existing ship and the water resistance will be a little 2b as the fuel cost is low. There is a possibility that it will be possible to make day trips anywhere on the earth by making the best use of space, such as airfields and 16 rounds of the earth per day.

0:各種エネルギ保存サイクル合体機関(太陽熱や地熱等各種熱エネルギ保存は熱ポンプで圧縮限り無く高圧の温熱+冷熱に分割保存使用・500以下液体金属等の熱エネルギ保存は保温装置で保存使用・衝撃エネルギ保存は大型タービン翼や金属球等に衝撃低減手段の被覆等を設け衝撃エネルギ永久保存し・重力エネルギ保存は上昇装置により1000m等上昇重力エネルギ保存使用して各種合体機関駆動) 1:発電機、 1C:アルコール冷熱、 1D:燃料噴射ポンプ、 1F:復水ポンプ、 1G:1段熱ポンプ(温熱50+冷熱28aに分割保存冷熱回収質量無限増大狙う) 1G:2〜複数段熱ポンプ(温熱50+冷熱28aに分割保存冷熱圧力無限上昇狙う) 1Y:燃焼器(超高圧高速燃焼で過熱蒸気50加熱が特徴) 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) 1d:水銀、 1g:重力加速部、 1h:横軸、 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で近くの川に食物の残りを捨てると一夜で微生物等が消化0にする現象の利用) 2a:自然現象高速化装置(発電で海水に冷熱28aを混合自然減高速化した海水を海底に供給窒素や酸素やCO2等の栄養分を供給して魚類やコンブ等を大増大する装置) 2a:自然現象高速化(船舶で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(速度増大滑走にする) 2c:断熱材、 2d:長レンズ、 2e:水面、 2A:耐熱材、 2B:熱吸収材、 2C:1段圧縮熱回収器(冷熱製造法は熱ポンプで1段圧縮高温として2X2Y2Zで熱回収の容器で冷熱質量無限増大狙う) 2C:2〜複数段圧縮熱回収器(冷熱製造法は熱ポンプで2〜複数回圧縮高温として2X2Y2Zで熱回収の容器で冷熱圧力無限上昇狙う) 2E:比重大物質(液体鉛や水銀等500度以下で液体の合金を含む金属・白金球や被覆白金球や金球や被覆金球や白金合金球等合金を含む金属球や被覆金属球や水を含む比重の大きい物質) 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大気中に噴射高速衝突させて空気冷却水冷却で超小径鋼球等製造・更にシリコン被覆等被覆金属球衝撃力低減にしてタービン翼保護する) 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:水熱交換器(高温空気や燃焼ガスで過熱蒸気製造) 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) 3E:比重大物質兼衝撃低減材料(水銀・500度以下で液体の金属・水等でタービン保護) 4X:タービン翼断面(断面積を拡大表面積増大) 6A:過熱蒸気噴射ノズル、 6W:比重大物質加速機 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する) 6Y:燃焼ガス噴射ノズル(冷熱28a燃焼流) 7A:プロペラ、 7B:回転翼、 7C:スクリュー、 8c:タービン翼、 8G:全動翼タービン(竪型全動翼タービン対向直列全動翼弾み車タービン直列全動翼弾み車タービン食込直列全動翼弾み車タービン) 8G:全動翼比重大物質重力太陽熱タービン(既存蒸気タービンは動翼と静翼を交互に設けて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比重大物質重力使用必須として太陽熱を種に無限に近い温熱+冷熱製造タービン駆動) 8G:全動翼比重大物質重力タービン(温熱駆動+冷熱駆動にすると使用落差が限定されるため落差使用無制限の場合使用) 8G:タービン(軽量化必須大面積必須タービン翼とし超小径鋼球使用ではシリコン被覆タービン翼等としシリコン被覆超小径鋼球使用では超硬合金タービン翼等にする) 10:船体、 10A:船室、 10b:操縦室、 10c:制御室、 10d:客室、 10e:貨物室、 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(太陽熱や地熱を空気28aで回収複数回圧縮熱回収して過熱蒸気50温熱+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、 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、 40A:方向舵、 49:燃焼ガス、 50:過熱蒸気、 50:温熱(太陽熱や地熱を空気28aで回収複数回圧縮熱回収して過熱蒸気50温熱+圧縮空気28a冷熱に分割保存) 51:空気抽出器、 51:合流抽出器(合流するための抽出器) 52a: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:内側動翼群(内側と外側が反対回転) 60D:外側動翼群(内側と外側が反対回転) 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、 78A:合体機関噴射部(超高圧過熱蒸気を超高圧燃焼ガスで内周と内周外周から1回以上加熱噴射) 78B:合体機関噴射部(超高圧過熱蒸気を超高圧燃焼ガスで内周と内周外周から1回以上加熱アフターバーナー追加噴射) 78V:合体機関噴射部(超高圧過熱蒸気を超高圧燃焼ガスで内周と外周と内周外周から加熱アフターバーナー追加噴射) 78W:合体機関噴射部(超高圧過熱蒸気を超高圧燃焼ガスで内周と外周と内周外周から加熱噴射) 79S:ウォータージェット(超高圧過熱蒸気を超高圧燃焼ガスで内周と外周と内周外周から加熱噴射) 79T:ウォータージェット(超高圧過熱蒸気を超高圧燃焼ガスで内周と外周と内周外周から加熱アフターバーナー追加噴射) 79U:ウォータージェット(超高圧過熱蒸気を超高圧燃焼ガスで内周と外周と内周外周から加熱噴射水吸引噴射) 79X:ウォータージェット(超高圧過熱蒸気を超高圧燃焼ガスで内周と内周外周から1回以上加熱噴射水吸引噴射) 79Y:ウォータージェット(超高圧過熱蒸気を超高圧燃焼ガスで内周と内周外周から1回以上加熱噴射) 79Z:ウォータージェット(超高圧過熱蒸気を超高圧燃焼ガスで内周と内周外周から1回以上加熱アフターバーナー追加噴射) 80:軸受、 80a:推力軸受(油圧で微浮上可能に内周や外周平面を幅広微傾斜又は金属製Oリング複数具備) 80A:継手、 80B:締付具、 84:二重反転装置(先の出願に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) 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: Combined engine with various energy storage cycles (storing various types of thermal energy such as solar heat and geothermal heat, using a heat pump to separate and store high-pressure hot and cold heat, and storing heat energy such as 500 or less liquid metals using a heat retaining device. The impact energy is preserved by providing impact reduction means coating on large turbine blades and metal balls, etc., and the impact energy is permanently preserved. The gravitational energy is preserved by using an ascending device to save the gravitational energy by 1000 m. 1C: alcohol cold heat, 1D: fuel injection pump, 1F: condensate pump, 1G: one-stage heat pump (warm heat 50 + cold heat 28a divided storage cold heat recovery mass infinite increase target) 1G: two-stage heat pump (heat heat 1+: Combustor (Characterized by superheated steam 50 heating with ultra high pressure and high speed combustion) 1b Fuel pipe (provided so that the fuel injection temperature becomes the optimum temperature) 1d: Mercury, 1g: Gravity accelerating section, 1h: Horizontal axis, 2: Solar heater (High temperature by collecting sunlight linearly with long lens) 2a: Acceleration of natural phenomenon (utilization of the phenomenon that microorganisms etc. are digested to zero overnight when the rest of food is thrown away in a nearby river with almost zero change in air) 2a: Acceleration of natural phenomenon Equipment (equipment of cold power 28a into seawater by power generation, supply seawater with natural speed reduction to the seabed, supply nutrients such as nitrogen, oxygen and CO2 to greatly increase fish, kombu, etc.) 2a: Speed up natural phenomena (ship ) Supply nutrients such as nitrogen, oxygen and CO2 into the sea, aiming for the digestive ability of microorganisms tens of thousands of times in the forest, increasing phytoplankton, seaweed, etc. to increase human food such as fish and kombu through food chain etc.) 2b: Water resistance Slightly (for speeding gliding 2c: heat insulating material, 2d: long lens, 2e: water surface, 2A: heat-resistant material, 2B: heat-absorbing material, 2C: one-stage compression heat recovery device (cooling production method is 2X2Y2Z as a first-stage compression high temperature with a heat pump 2C: 2 to 2 stage compression heat recovery device (cooling production method aims to infinitely increase the cold pressure in the heat recovery container with 2X2Y2Z as a high temperature compression 2 to 2 times with heat pump) 2E : Specific critical substances (metal, platinum sphere, coated platinum sphere, gold sphere, coated gold sphere, platinum alloy sphere, alloyed metal sphere, coated metal sphere, water, etc. 2E: Specific critical substance (Manufacturing method reduces the impact energy as the diameter decreases. For example, molten steel is injected into the atmosphere at high speed and air cooled water is cooled to produce ultra-small diameter steel balls, etc.) Coated metal ball impact 2F: Specific critical substance raising device (gravity energy is increased and stored) 2H: Cold seawater mixer (mixing cold water into seawater, cooling the superheated steam vaporization heat in the process of speeding up the natural phenomenon) 2X: Air heat exchanger (Air is compressed with a heat pump to increase the heat recovery compressed air mass infinitely or the pressure is infinitely increased) 2Y: Water heat exchanger (High-temperature air or combustion gas is used to produce superheated steam) 2Z : Specific critical material heat exchanger (used for temperature control of liquid metal below 500 degrees) 3E: Specific critical material and impact reducing material (turbine protection with mercury, liquid metal and water below 500 degrees) 4X: Turbine blade 6A: Superheated steam injection nozzle, 6W: Specific material accelerator 6X: Fuel injection nozzle, 6X: Afterburner (fuel injection cold heat 28a combustion in suction air flow) 6Y: Combustion gas injection nozzle (cooling heat 28a combustion flow) 7A: Propeller, 7B: Rotor blade, 7C: Screw, 8c: Turbine blade, 8G: All blade turbine ( Vertical all-blade turbine opposed series all-blade flywheel turbine series all-blade flywheel turbine bite-in series all-blade flywheel turbine) 8G: All-blade ratio critical material gravity solar thermal turbine Since the damming output is close to zero with the stationary blades, all rotor blades are essential, and the work rate is 1 / 360,000, which is as small as that of platinum spheres. Near-heat + cold-producing turbine drive) 8G: Gravity turbine with all blade ratio critical material (use of hot-drive + cold-drive because the head is limited, so no head use is limited) 8G: turbine (light Quantification required Large area required Turbine blades, silicon-coated turbine blades, etc. when using ultra-small diameter steel balls, silicon carbide-coated turbine blades, etc. when using silicon-coated ultra-small diameter steel balls, etc.) 10: Hull, 10A: Ship cabin, 10b: Cockpit, 10c: Control room, 10d: Guest room, 10e: Cargo compartment, 24: Combustion gas control valve, 24A: Compressed air control valve, 25: Superheated steam control valve, 25b: Fuel control valve, 28a: Air, 28a: Cold (solar heat) And the geothermal heat is recovered multiple times with air 28a, and compressed heat is recovered multiple times and divided and stored in the form of 50 heat of superheated steam + cold air of compressed air 28a) 28b: heat of compressed air, 28A: intake air path, 28B: air path inlet, 38a: flight trunk, 38b: flying wing, 38c: flying tail, 38d: vertical wing, 38e: wing leading edge, 38g: surface 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 rotating plane, 39C: Solar thermal gravity helicopter, 39D: Screw ship, 39G: Solar thermal gravity flying ship, 40A: Rudder, 49: Combustion gas, 50: Superheated steam, 50: Warmth (solar heat and geothermal are recovered by air 28a and compressed heat is recovered and divided into 50 heats of superheated steam + compressed air 28a cold) 51: Air extractor, 51: Combined extractor (extractor for joining) 52a: Water, 52b: Hot water, 52d: Hot heat (changed from 50) 52e: Cold heat (changed from 28a) 55B: Transmission, 60A: Inner shaft device (equipped with turbine blades) Device) 60B: Outer shaft device (equipment with turbine blades) 60C: Inner blade group ( 60D: Outer rotor blade group (inner side and outer side oppositely rotated) 77B: Semi-cylindrical outer box, 77F: Injection section outer box, 77G: Cylindrical rotating section, 77a: Turbine outer box, 78A: Combined engine injection part (super high pressure superheated steam is heated and injected at least once from the inner periphery and inner periphery and outer periphery with super high pressure combustion gas) 78B: Combined engine injection part (super high pressure superheated steam is applied to the inner periphery and inner periphery with ultra high pressure combustion gas) 78V: Combined engine injection part (super high pressure superheated steam with super high pressure combustion gas, additional heating afterburner injection from the inner periphery, outer periphery and inner periphery outer periphery) 78W: Combined engine injection part (ultra high pressure) 79S: Water jet (super high pressure superheated steam is heated and jetted from the inner circumference, outer circumference and inner circumference outer circumference with ultrahigh pressure combustion gas) 79T: Water jet (Addition of afterburner heating with super-high pressure superheated steam from the inner circumference, outer circumference and inner circumference outer circumference with super-high-pressure combustion gas) 79U: Water jet (Inner circumference, outer circumference and inner circumference outer circumference with super-high pressure superheated steam with ultra-high pressure combustion gas) 79X: Water jet (Super high pressure superheated steam is injected with super high pressure combustion gas at least once from the inner circumference and inner circumference outer circumference and heated jet water suction jet) 79Y: Water jet (Ultra high pressure superheated steam is super high pressure) 79Z: Water jet (super high pressure superheated steam is heated and injected once more from the inner circumference and inner circumference outer circumference at least once from the inner circumference and inner circumference outer circumference) 80: Bearing, 80a: Thrust bearing (equipped with multiple finely inclined or metal O-rings on the inner and outer surfaces so that it can be finely floated by hydraulic pressure) 80A: Joint, 80B: Tightening 84: Counter-rotating device (apparatus that makes the inner rotor blade group and the outer rotor blade group having the fixed portion rotate at substantially the same speed in the previous application) 84Y: Counter-rotating gear device (same for existing technology) 95a : Combustion gas reservoir, 95b: compressed air reservoir, 95c: superheated steam reservoir, 103: cold energy recovery device,

Claims (32)

全動翼比重大物質重力タービン(8G)を段落毎同径略同形として油圧浮上推力軸受(80a)具備1〜120段等比重大物質(2E)の落差を無制限として発電する各種エネルギ保存サイクル合体機関。   Combined with various energy storage cycles to generate electricity with unlimited hydraulic fluid thrust thrust bearing (80a) and 1 to 120 stage equivalent material (2E) with unlimited constant gravity material (8G) of all rotor blade specific material gravity turbine (8G) organ. 全動翼比重大物質重力タービン(8G)駆動にして1〜複数段熱ポンプ(1G)1〜複数段圧縮熱回収器(2C)で冷熱(28a)製造量増大して冷熱圧力を上昇使用する各種エネルギ保存サイクル合体機関。   Increase the amount of cold (28a) and increase the cold pressure by using 1 to multi-stage heat pump (1G) to 1-stage multi-stage compression heat recovery unit (2C) with gravity blade (8G) drive Various energy conservation cycle coalescence engine. 全動翼比重大物質重力タービン(8G)で発電電気駆動にして1〜複数段熱ポンプ(1G)1〜複数段圧縮熱回収器(2C)で冷熱(28a)製造量増大して冷熱圧力を上昇使用する各種エネルギ保存サイクル合体機関。   Increase the production amount of cold heat (28a) with 1 to multi-stage heat pump (1G) 1 to multi-stage compression heat recovery unit (2C) by generating electricity and driving with all blade ratio critical material gravity turbine (8G). Various energy conservation cycle coalescence engine used for ascending use. 全動翼比重大物質重力太陽熱タービン(8G)で発電電気駆動や(8G)駆動にして1段熱ポンプ(1G)で温熱(50)+冷熱(28a)製造量増大して2〜複数段熱ポンプ(1G)で冷熱圧力を更に上昇して使用する各種エネルギ保存サイクル合体機関。   Total moving blade ratio material Gravity solar power turbine (8G) power generation electric drive or (8G) drive and heat production (50) + cold heat (28a) increased by 1 stage heat pump (1G) 2 to multiple stage heat Various energy storage cycle coalescing engines that use the pump (1G) with further increased cold pressure. 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段圧縮熱回収器(2C)具備でプロペラ(7A)駆動する各種飛行機類とした各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescing engines with various rotor blade ratio critical material gravity solar heat turbine (8G) 1 to multi-stage compression heat recovery device (2C) and propeller (7A) drive. 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段圧縮熱回収器(2C)具備で回転翼(7B)駆動する各種飛行機類とした各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescing engines with various moving blade ratios, such as gravitational solar thermal turbine (8G) 1 to multistage compression heat recovery unit (2C) and various types of airplanes driven by rotor blades (7B). 全動翼比重大物質重力タービン(8G)1〜複数段圧縮熱回収器(2C)具備でスクリュー(7C)駆動する各種船舶類とした各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescing engines as various vessels driven by screw (7C) equipped with all-blade ratio critical material gravity turbine (8G) 1 to multistage compression heat recovery unit (2C). 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)で合体機関噴射部(78A)駆動する各種飛行機類とした各種エネルギ保存サイクル合体機関。   Variety of various airplanes driven by the combined engine injection part (78A) with hot (50) + cold (28a) produced by the total moving blade ratio critical material gravity solar heat turbine (8G) and 1 to multistage heat pump (1G) Energy conservation cycle coalescence engine. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)で合体機関噴射部(78B)駆動する各種飛行機類とした各種エネルギ保存サイクル合体機関。   Variety of various airplanes driven by the combined engine injection part (78B) with hot (50) + cold (28a) produced by a gravity-solar turbine (8G) and 1 to multi-stage heat pump (1G) Energy conservation cycle coalescence engine. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)で合体機関噴射部(78V)駆動する各種飛行機類とした各種エネルギ保存サイクル合体機関。
体機関。
Variety of various airplanes driven by a combined engine injection unit (78V) with hot (50) + cold (28a) manufactured by a gravity solar thermal turbine (8G) and 1 to multi-stage heat pump (1G) Energy conservation cycle coalescence engine.
Body engine.
全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)で合体機関噴射部(78W)駆動する各種飛行機類とした各種エネルギ保存サイクル合体機関。   Variety of airplanes driven by a combined engine injection unit (78W) with hot (50) + cold (28a) manufactured by a gravity bladed thermal turbine (8G) and 1 to multi-stage heat pump (1G) Energy conservation cycle coalescence engine. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)でウォータージェット(79S)駆動する各種船舶類とした各種エネルギ保存サイクル合体機関。   All kinds of energy conservation as various vessels driven by water jet (79S) with hot (50) + cold (28a) manufactured by gravity solar thermal turbine (8G) and 1 to multi-stage heat pump (1G) Cycle coalescence engine. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)でウォータージェット(79T)駆動する各種船舶類とした各種エネルギ保存サイクル合体機関。   All kinds of energy conservation as various ships driven by water jet (79T) with hot (50) + cold (28a) produced by gravity turbine (8G) and 1 to multi-stage heat pump (1G) Cycle coalescence engine. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)でウォータージェット(79U)駆動する各種船舶類とした各種エネルギ保存サイクル合体機関。   All kinds of energy conservation as various ships driven by water jet (79U) with hot (50) + cold (28a) manufactured by gravity turbine (8G) and 1 to multi-stage heat pump (1G) Cycle coalescence engine. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)でウォータージェット(79X)駆動する各種船舶類とした各種エネルギ保存サイクル合体機関。   All kinds of energy preservation as various ships driven by water jet (79X) with hot (50) + cold (28a) manufactured by gravity turbine (8G) and 1 to multi-stage heat pump (1G) Cycle coalescence engine. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)でウォータージェット(79Y)駆動する各種船舶類とした各種エネルギ保存サイクル合体機関。   All kinds of energy conservation as various vessels driven by water jet (79Y) with hot (50) + cold (28a) manufactured by gravity solar thermal turbine (8G) and 1 to multi-stage heat pump (1G) Cycle coalescence engine. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)でウォータージェット(79Z)駆動する各種船舶類とした各種エネルギ保存サイクル合体機関。   Energy saving as various ships driven by water jet (79Z) with hot (50) + cold (28a) manufactured by gravity turbine (8G) and 1 to multistage heat pump (1G) Cycle coalescence engine. 全動翼比重大物質重力タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電した電気で車両類を駆動する各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescing engines that drive vehicles with electricity generated by all-blade ratio critical material gravity turbine (8G) to multistage compression heat recovery unit (2C). 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電した電気で車両類を駆動する各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescence engine that drives vehicles with electricity generated by all-blade ratio critical material gravity solar turbine (8G) 1 to multistage compression heat recovery unit (2C). 全動翼比重大物質重力タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電蓄電池した電気で自動車類を駆動する各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescing engines that drive automobiles with electricity generated and stored in a full-blade specific material gravity turbine (8G) 1 to multistage compression heat recovery unit (2C). 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電蓄電池した電気で自動車類を駆動する各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescing engines that drive automobiles with electricity generated and stored in all-blade ratio critical material gravity solar turbine (8G) 1 to multistage compression heat recovery unit (2C). 全動翼比重大物質重力タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電蓄電池した電気で船舶類を駆動する各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescing engines that drive ships with electricity generated and stored in all-blade ratio critical material gravity turbine (8G) 1 to multistage compression heat recovery unit (2C). 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電蓄電池した電気で船舶類を駆動する各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescing engines that drive ships with electricity generated and stored in a full-blade ratio critical material gravity solar turbine (8G) 1 to multistage compression heat recovery unit (2C). 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)で合体機関噴射部(78A)駆動する各種宇宙往還飛行機類にする各種エネルギ保存サイクル合体機関。   All kinds of space return airplanes driven by a combined engine injection unit (78A) with hot (50) + cold (28a) manufactured by a gravity solar thermal turbine (8G) and a multistage heat pump (1G). Various energy conservation cycle coalescing engines. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)で合体機関噴射部(78B)駆動する各種宇宙往還飛行機類にする各種エネルギ保存サイクル合体機関。   For various space return airplanes driven by a combined engine injection unit (78B) with hot (50) + cold (28a) produced by a gravity bladed thermal turbine (8G) and 1 to multi-stage heat pump (1G) Various energy conservation cycle coalescing engines. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)で合体機関噴射部(78V)駆動する各種宇宙往還飛行機類にする各種エネルギ保存サイクル合体機関。   All kinds of space return airplanes driven by a combined engine injection unit (78V) with hot (50) + cold (28a) manufactured by a gravity-solar turbine (8G) and a multistage heat pump (1G). Various energy conservation cycle coalescing engines. 全動翼比重大物質重力太陽熱タービン(8G)と1〜複数段熱ポンプ(1G)で製造した温熱(50)+冷熱(28a)で合体機関噴射部(78W)駆動する各種宇宙往還飛行機類にする各種エネルギ保存サイクル合体機関。   All kinds of space return airplanes driven by a combined engine injection unit (78W) with hot (50) + cold (28a) manufactured with a gravity-severe solar thermal turbine (8G) and 1-stage heat pump (1G). Various energy conservation cycle coalescing engines. 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電した電気で冷蔵庫を駆動する等家庭電化全盛にする各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescence engine which makes home electrification prime, such as driving a refrigerator with electricity generated by the total power blade ratio critical material gravity solar heat turbine (8G) 1 to multistage compression heat recovery device (2C). 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段熱ポンプ(1G)で製造の冷熱(28a)で氷を大量生産する等冷熱利用全盛にする各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescence engine that makes the best use of cold energy, such as mass production of ice with cold (28a) manufactured by a gravity solar thermal turbine (8G) 1 to multiple stage heat pump (1G). 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段熱ポンプ(1G)で製造の温熱(50)をメタンハイドレートに注入メタンを回収する等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。   Various energy conservation cycle coalescence engine that makes the best use of isothermal heat by injecting the heat (50) produced in the whole blade ratio critical material gravity solar turbine (8G) 1-multistage heat pump (1G) into methane hydrate and recovering methane . 全動翼比重大物質重力太陽熱タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電した電気で工作機械を駆動する等工場電化全盛にする各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescence engines that make the factory electrification prime, such as driving machine tools with electricity generated by the gravity of the moving blade ratio critical material gravity solar heat turbine (8G) 1-multistage compression heat recovery device (2C). 全動翼比重大物質重力タービン(8G)1〜複数段圧縮熱回収器(2C)具備で発電した電気で工作機械を駆動する等工場電化全盛にする各種エネルギ保存サイクル合体機関。   Various energy storage cycle coalescence engines that make the factory electrification prime, such as driving machine tools with electricity generated by gravity turbine (8G) 1 to multistage compression heat recovery unit (2C) equipped with full blade ratio material.
JP2010033224A 2010-02-18 2010-02-18 Various energy conservation cycle combined engine Pending JP2011169217A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP2010033224A JP2011169217A (en) 2010-02-18 2010-02-18 Various energy conservation cycle combined engine

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP2010033224A JP2011169217A (en) 2010-02-18 2010-02-18 Various energy conservation cycle combined engine

Publications (1)

Publication Number Publication Date
JP2011169217A true JP2011169217A (en) 2011-09-01

Family

ID=44683588

Family Applications (1)

Application Number Title Priority Date Filing Date
JP2010033224A Pending JP2011169217A (en) 2010-02-18 2010-02-18 Various energy conservation cycle combined engine

Country Status (1)

Country Link
JP (1) JP2011169217A (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN114132474A (en) * 2021-11-26 2022-03-04 江苏海事职业技术学院 Ship power cabin cooling system for cooling by seawater series flow

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN114132474A (en) * 2021-11-26 2022-03-04 江苏海事职业技术学院 Ship power cabin cooling system for cooling by seawater series flow
CN114132474B (en) * 2021-11-26 2023-10-10 江苏海事职业技术学院 Ship power cabin cooling system for cooling by utilizing seawater serial flow

Similar Documents

Publication Publication Date Title
JP2009191615A (en) Various energy conservation cycle combined engine
JP2011169217A (en) Various energy conservation cycle combined engine
WO2010101017A1 (en) Combination engine with various energy conservation cycles
JP2012189046A (en) Various energy conservation cycle combined engine
JP2012207599A (en) Cvarious energy conservation cycle combined engine
JP2012189038A (en) Various energy conservation cycle combined engine
JP2011144680A (en) Various energy conservation cycle combined engine
JP2012207597A (en) Various energy conservation cycle combined engine
JP2011122434A (en) Various energy conservation cycle combined engine
JP2011117302A (en) Various energy conservation cycle combined engine
JP2011117301A (en) Various energy conservation cycle combined engine
JP2011144672A (en) Various energy conservation cycle combined engine
JP2011089398A (en) Various energy conservation cycle combined engine
JP2012237275A (en) Various energy conservation cycle combined engine
JP2011122436A (en) Various energy conservation cycle combined engine
JP2011144681A (en) Various energy conservation cycle combined engine
JP2011144674A (en) Various energy conservation cycle combined engine
JP2011089402A (en) Various energy conservation cycle combined engine
JP2011122430A (en) Various energy conservation cycle combined engine
JP2011122431A (en) Various energy conservation cycle combined engine
JP2011122444A (en) Various energy conservation cycle combined engine
JP2011117296A (en) Various energy conservation cycle combined engine
JP2011117308A (en) Various energy conservation cycle combined engine
JP2011169138A (en) Various energy conservation cycle combined engine
JP2011169134A (en) Various energy conservation cycle combined engine