JP2015178828A - Concept of high-capacity rotary blade power generation by double-stage rotary blade under-water installation and its application - Google Patents

Concept of high-capacity rotary blade power generation by double-stage rotary blade under-water installation and its application Download PDF

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JP2015178828A
JP2015178828A JP2014090660A JP2014090660A JP2015178828A JP 2015178828 A JP2015178828 A JP 2015178828A JP 2014090660 A JP2014090660 A JP 2014090660A JP 2014090660 A JP2014090660 A JP 2014090660A JP 2015178828 A JP2015178828 A JP 2015178828A
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power generation
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晴勇 島
Seiyu Shima
晴勇 島
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Abstract

PROBLEM TO BE SOLVED: To take an increase of sea water temperature into consideration due to circulation and application of a large amount of seawater.SOLUTION: A large amount of under-water space can be assured and much more number of "high-pressure sea water injectors" can be installed by setting double stage upper and lower water tanks in a marine power generator ship and an under-water power generation vehicle so as to create a powerful rotary driving force power generation. As an advantage of this rotary blade type power generator, it overcomes a disadvantage of the prior art that the laterally installed type steam turbine of this power generation method cannot create a rotary driving force of heavy-weight mood. Further, this invention of a method of using large-scaled power generation facilities causes a heavy-weight and high-speed rotary blade to be realized and a dreamy large capacity type under-water power generation is also realized. Additionally, a marine pool or the like is installed near the under-water vehicle so as to perform sea water cooling and cleaning in a positive manner.

Description

海上海中部分に設置された海中発電船内に於いて、〔図1〕の通り二段階の海中空間を設置をし、その各々海中空間の強烈な浮力活用を行ない各々各層での強力な回転発電稼動を行なう発電設備である。  In the submarine power generation ship installed in the middle part of Shanghai Shanghai, a two-stage subsea space is installed as shown in [Fig. 1], and the strong buoyancy of each submarine space is utilized to provide powerful rotational power generation in each layer. It is a power generation facility that operates.

本二段階海中空間設置活用の発見に依り各潮流、各低気圧対応等が大きく前進すると同時に「海中安定第三海中空間」の設置活用は迅速な諸事案への対応が可能となる大切な海中空間となる。  The discovery of the use of this two-stage underwater space makes significant progress in the response to each tidal current, low pressure, etc., and at the same time, the installation and use of the `` Underwater Stable Third Underwater Space '' makes it possible to quickly respond to various incidents. It becomes space.

〔図1〕にて説明する。This will be described with reference to FIG.

海中海上発電船内に〔図1〕の通り大きく二層の貯留水槽の設置を行なう事とし、まず「上部貯留水槽」内の「第1上部回転扇」部分は完全に「上部貯留水槽内喫水線」上に設置を行ない、この「第1上部回転扇」部分に「高圧海水噴出機」の噴出稼動を行ない、この「回転扇」部分に「高圧海水噴出機」の噴出稼動を行ない、この時の噴出稼動は海水の噴出還流のみとなる。
そして「中部貯留水槽」内の「第二下部回転扇」の下部部分には「回転分銅」が設置され、上部回転扇と同様に「高圧海水噴出機」よりの高圧噴出流と「回転分銅」双方の働きと同時に「第一上部回転扇」の連携回転稼動の出現となり、強力な回転力が「第1主力回転ギア」の回転稼動となり、継続された発電の出現となる。
当然「第一上部回転扇」は気象状況等に応じ「上部貯留水槽内喫水線」海水面上部分に接水される事とする。
そして「海上侵入抑止筒」の設置に依り、確実な「上部貯留水槽」と「中部貯留水槽」の分離が行なわれ同時に「海上海中空間」部分と「中部海中空間」部分は安定空間として継がっている為に両空間内では常時「大気圧圏内1気圧」空間が保持される事となる。
又「中部回転扇安定稼動回転渦流調整室」の設置目的は常時安定した排出海水、排出空気の安定供給を行なう為に設置したものであり、強力な低気圧対策、各種潮流対策等に必要な設備となるものである。
As shown in [Fig. 1], a large two-layer storage tank will be installed in the underwater ocean power generation ship. First, the “first upper rotating fan” part in the “upper storage tank” is completely the “draft line in the upper storage tank”. The “high pressure seawater jet” is ejected to this “first upper rotary fan”, and the “high pressure seawater jet” is jetted to this “rotary fan”. The eruption operation is only seawater squirt recirculation.
And the "rotary weight" is installed in the lower part of the "second lower rotary fan" in the "central storage tank". Like the upper rotary fan, the high-pressure jet flow from the "high-pressure seawater jet machine" and the "rotary weight" At the same time, the “first upper rotating fan” is linked to the rotating operation, and the powerful rotating force is rotated to the “first main rotating gear”.
Naturally, the “first upper rotating fan” will be in contact with the “waterline in the upper storage tank” on the sea surface according to the weather conditions.
With the installation of the “Marine Intrusion Prevention Cylinder”, the “Upper Reservoir” and the “Central Reservoir” are reliably separated, and at the same time, the “Sea Shanghai Central Space” and the “Central Underwater Space” are connected as stable spaces. As a result, a “atmospheric pressure range of 1 atmospheric pressure” space is always maintained in both spaces.
The purpose of installing the “Central rotating fan stable operation rotating eddy current adjustment chamber” is to provide stable supply of discharged seawater and discharged air at all times, and is necessary for strong low pressure countermeasures and various tidal current countermeasures. It becomes equipment.

関連特許
4件 特許第4993027号 平成24年5月18日認定登録日 「回転扇発電に於ける大容量発電と大量排海水処理の全体構想」 申請者 島 晴勇 特許第4974017号 平成24年4月20日認定登録日 「扇形浮力船回転式ドラム缶水流発電機」 申請者 島 晴勇 特許第5030007号 平成24年7月6日認定登録日 「海水圧高圧噴出発電装置」 申請者 島 晴勇 特許第5408575号 平成25年11月15日認定登録日 『海中空間部分への「海中浮力回転容器」の設置 申請者 島 晴勇
Related patents
4 patents No. 4993027 May 18, 2012 certification registration date "Overall concept of large-capacity power generation and mass wastewater treatment in rotary fan power generation" Applicant Haruyu Shima Patent No. 4974017 April 20, 2012 Certification registration date “fan-shaped buoyancy ship rotary drum water current generator” Applicant Haruyu Shima Patent No. 5030007 July 6, 2012 Certification registration date “Seawater pressure high pressure jet generator” Applicant Haruyu Shima Patent No. 5408575 No. 2013 November 15, 2015 Certification Registration Date “Installation of“ Underwater Buoyancy Rotating Container ”in Underwater Space” Applicant Haruyu Shima

より強力で安全な回転扇発電の発見を思考中に偶然に思いついたものであり、地上でのビル内の1Fと2Fを設置想像すれば良く、但し大量の回転浮力に必要な大量の海水は海中でないと不可能となる。
海中発電が成功するかどうかは完全な安全性と大量の海水に依る厖大な発電量が可能かどうかであり、本二段回転扇設置の発見に依り、最大の懸案事項である安全な大容量発電が近い将来必ず出現する事となる。
I thought of the discovery of a more powerful and safe rotating fan power generation by chance, and I just imagined installing 1F and 2F in the building on the ground, but a lot of seawater necessary for a lot of rotating buoyancy It becomes impossible if it is not in the sea.
The success of subsea power generation depends on whether it is possible to produce a complete safety and a large amount of power generation based on a large amount of seawater. Power generation will surely appear in the near future.

大容量発電の為の二段回転扇の設置方法であるが〔図1〕の通り「上部貯留水槽」と「中部貯留水槽」部分を継ぐ大切な「海水侵入抑止筒」の設置に於いては上下回転扇のより安定した回転に大きく貢献する事は自明の理であり、「回転分銅」「海中空間」双方の安定稼動に依る強力な「第一主力回転ギア」稼動にも大きく貢献する事となる大切な「海水侵入抑止筒」の設置活用となる。  Although it is a method of installing a two-stage rotating fan for large-capacity power generation, as shown in [Fig. 1], in the installation of an important “seawater intrusion prevention cylinder” that connects the “upper reservoir” and “central reservoir” It is self-evident that it greatly contributes to the more stable rotation of the vertical fan, and it also greatly contributes to the operation of the powerful “first main rotating gear” that depends on the stable operation of both the “rotary weight” and “underwater space”. The important “seawater intrusion prevention cylinder” will be installed and utilized.

従来の高温高圧蒸気発電エネルギーの半分近くは大気中に放出がされて地球温暖化に大きく貢献しているが、同時に高温蒸気の瞬発力のみに依る高速回転発電の為に厖大な高熱高温蒸気の常時発生が必要となる。
本二段回転扇発電の狙いは天然資源の水中での空気浮力の活用と海水の循環のみで発電稼動を行なう為に最初の設備は大変であるが、回転稼動が始まれば、海中での「回転扇」の回転力のみで大容量発電の現出となる。
まず蒸気タービンは殆んど横置き設置の為に僅か数百kg〜数千kgの回転軸の高速回転となるが、本海中発電での回転扇自体の高速回転等は全く不必要な為に、必要最小限の回転速度の確保を目指す事となり、その回転扇の重量は数t〜数十tの重量となる。
そしてその狙いは重量物体に依る連続した低速回転稼動力の維持が可能であれば正に蒸気機関車がレール上を段々と加速して行くと、次第にその物体の重量加重の現出となり次第に猛烈な加速速度となる事は自然の道理であり、正に本回転扇も同様な高速回転稼動となり当然双方共大気圧圏内1気圧空間となる事は誰でも理解される事となる。
然らば、この高速回転扇の現出に必要なエネルギーは「高圧海水噴出機」のみであり、且つこの噴出海水は全て水面喫水線下の水中部分よりの吸引噴出の為に、従来の水面上設置等よりの吸引噴出等よりは噴出負荷は全く違った事となり噴出負荷は大きく減少する事となる。
そしてこの回転扇周囲に設置された数十基の「高圧海水噴出機」が噴出稼動を行なえば本回転扇が段々と回転稼動を始めそして暫くすると回転分銅、海中空間双方の自然活用を行ない乍ら、高速回転域に達する事となり、この重量感のある回転稼動力の活用に依る「発電船内第一甲板」上の「第一主力回転ギア」の回転稼動に依る各連結回転ギアの稼動活用を行なえば必ず厖大な大容量発電が出現する事は充分に理解される事となる。
Nearly half of the conventional high-temperature and high-pressure steam power generation energy is released into the atmosphere and contributes greatly to global warming. At the same time, a large amount of high-temperature high-temperature steam is generated for high-speed rotation power generation that depends only on the instantaneous power of high-temperature steam. It is necessary to always occur.
The aim of this two-stage rotating fan power generation is to use the air buoyancy of natural resources underwater and the power generation operation only by the circulation of seawater, but the first equipment is difficult, but once the rotation operation starts, Large-capacity power generation appears only with the rotational force of the rotary fan.
First of all, the steam turbine is almost horizontally installed, so it rotates at a high speed of only a few hundred kg to several thousand kg. However, the high-speed rotation of the rotating fan itself in this subsea power generation is completely unnecessary. Therefore, it is aimed to secure the necessary minimum rotation speed, and the weight of the rotary fan is several t to several tens t.
And if the aim is to maintain a continuous low-speed rotational operating force depending on the heavy object, if the steam locomotive accelerates on the rail step by step, the weight weighting of that object will gradually appear and it will become increasingly fierce It is natural reason to achieve a high acceleration speed, and anyone can understand that this rotary fan will also operate at the same high speed and naturally both will be in the atmospheric pressure range.
Therefore, the only energy required for the appearance of this high-speed rotating fan is the “high-pressure seawater ejector”, and all of this seawater is aspirated and ejected from the underwater part below the water surface draft line. The ejection load is completely different from the suction ejection from the installation, and the ejection load is greatly reduced.
And if dozens of "high-pressure seawater jets" installed around the rotary fan perform the jetting operation, this rotary fan will start to rotate gradually, and after a while, the natural use of both the rotary weight and the underwater space will be carried out. Therefore, the high speed rotation range will be reached, and the operational use of each connected rotary gear by the rotary operation of the "first main rotary gear" on the "first deck in the power generation ship" by using this heavy rotational operating force It will be fully understood that enormous large-capacity power generation will always occur if

海上海中部分に設置された海中発電船内に於いて、〔図1〕の通り三段階の海中空間を設置をし、その各々海中空間の強烈な浮力活用を行ない各々各層での強力な回転発電稼動を行なう発電設備である。  In the submarine power generation ship installed in the middle part of Shanghai Shanghai, three stages of subsea space are installed as shown in [Fig.1], and each of these layers uses the strong buoyancy and powerful rotary power generation in each layer. It is a power generation facility that operates.

本二段階海中空間設置活用の発見に依り各潮流、各低気圧対応等が大きく前進すると同時に「海中安定第三海中空間」の設置活用は迅速な諸事案への対応が可能となる大切な海中空間となる。  The discovery of the use of this two-stage underwater space makes significant progress in the response to each tidal current, low pressure, etc., and at the same time, the installation and use of the `` Underwater Stable Third Underwater Space '' makes it possible to quickly respond to various incidents. It becomes space.

〔図1〕にて説明する。This will be described with reference to FIG.

海中海上発電船内に〔図1〕の通り大きく二層の貯留水槽の設置を行なう事とし、まず「上部貯留水槽」内の「第1上部回転扇」部分は完全に「上部貯留水槽内喫水線」上に設置を行ない、この「第1上部回転扇」部分に「高圧海水噴出機」の噴出稼動を行ない、同時に下段「第二下部回転扇」部分にも「高圧海水噴出機」の噴出稼動を行ない、この時の噴出稼動は海水の噴出環流のみとなる。

Figure 2015178828
「中部貯留水槽」内の「第二下部回転扇」の下部部分には「回転分銅」が設置され、上部回転扇と同様に「高圧海水噴出機」よりの高圧噴出流と「回転分銅」双方の働きを同時に「第一上部回転扇」の連携回転稼動の出現となり、強力な集合回転力が「第1主力回転ギアの回転稼動となり、継続された発電の出現となる。
当然「第一上部回転扇」は気象状況等に応じ「上部貯留水槽内喫水線」海水面上部分に調整接水される事とする。
そして「海水侵入抑止筒」の設置に依り、確実な「上部貯留水槽」と「中部貯留水槽」の分離が行なわれ同時に「海上海中空間」部分と「中部海中空間」部分は安定空間として継がっている為に両空間内では常時「大気圧圏内1気圧」空間が保持される事となる。
そして上下各々貯留水槽内の水圧は各々水深が浅い為に無いに等しい状態での安定回転稼動の為に軽快な高速回転稼動の出現が深海海中部分に出現し、より安定稼動の為に「外海海水侵入排水調整装置」と「中部回転扇安定稼動回転渦流調整室」内の「噴出海水噴出空気調整吸排出装置」双方の活用に依る上下各貯留水槽内の海水量の安定調整等が行なわれ常時安定した発電稼動が出現する事となる。As shown in [Fig. 1], a large two-layer storage tank will be installed in the underwater ocean power generation ship. First, the “first upper rotating fan” part in the “upper storage tank” is completely the “draft line in the upper storage tank”. The high-pressure seawater sprayer is installed in the “first upper rotary fan” part, and the “high-pressure seawater jetter” is also run in the lower “second lower rotary fan” part. At this time, only the seawater squirting circulation is performed.
Figure 2015178828
A “rotary weight” is installed in the lower part of the “second lower rotating fan” in the “central reservoir”, and both the high-pressure jet flow from the “high-pressure seawater ejector” and the “rotating weight” are the same as the upper rotating fan. At the same time, the joint rotation operation of the “first upper rotary fan” appears, and the powerful collective rotational force becomes “the rotation operation of the first main power rotation gear, and the continuous power generation appears.
Of course, the “first upper rotating fan” is adjusted to contact with the “waterline in the upper storage tank” on the sea surface according to the weather conditions.
And by installing the “seawater intrusion deterrent cylinder”, the “upper water storage tank” and the “central water storage tank” are surely separated, and at the same time, the “sea Shanghai middle space” and the “central underwater space” are connected as stable spaces. As a result, a “atmospheric pressure range of 1 atmospheric pressure” space is always maintained in both spaces.
And since the water pressure in the upper and lower storage tanks is not equal because the water depth is shallow, the appearance of light high-speed rotation operation appears in the deep sea underwater conditions for stable rotation operation, and for more stable operation, Stable adjustment of the amount of seawater in each of the upper and lower storage tanks is made by utilizing both the `` seawater intrusion drainage adjustment device '' and the `` spouted seawater jet air adjustment intake and discharge device '' in the `` central rotating fan stable operation rotating vortex adjustment chamber '' A stable power generation operation will appear at all times.

関連特許
6件 特許第4993027号 平成24年5月18日 登録日 「回転扇発電に於ける大容量発電と大量排海水処理の全体構想」 申請者 島 晴勇 特許第4974017号 平成24年4月20日 登録日 「扇形浮力船回転式ドラム缶水流発電機」 申請者 島 晴勇 特許第5030007号 平成24年7月6日 「海水圧高圧噴出発電装置」 申請者 島 晴勇 特許第5408575号 平成25年11月15日 海中空間部分への「海中浮力回転容器」の設置 申請者 島 晴勇 特許第5464505号 平成26年1月31日 「深海部分での大容量排海水の船外排出装置 申請者 島 晴勇 特許第 号 平成26年5月20日認定日 海上部分設置各種回転扇発電と海中発電船内海中空間部分内えの大量自然排海水処理と海中安定設置確保方法 申請者 島 晴勇
Related patents
6 Patents No. 4993027 May 18, 2012 Date of registration “Overall concept of large-capacity power generation and mass wastewater treatment in rotary fan power generation” Applicant Haruyu Shima Patent No. 4974017 April 20, 2012 Registration Japan “Floating Drum Can Water Flow Generator with Fan-Shaped Buoyant Ship” Applicant Haruyu Shima Patent No. 5030007 July 6, 2012 “Seawater Pressure High-Pressure Power Generation System” Applicant Haruyu Shima Patent No. 5408575 No. 15 November 2013 Installation of “Underwater Buoyancy Rotating Container” in Underwater Space Applicant Haruyu Shima Patent No. 5464505 January 31, 2014 Applicant Haruyu Shima Patent No. Heisei Certified May 20, 2014 Seaside Partial Installation Various Rotating Fan Power Generation and Underwater Power Generation Large Mass Natural Wastewater Treatment in the Underwater Space and Method for Ensuring Stable Underwater Application Applicant Haruyu Shima

より強力で安全な回転扇発電の発見を思考中に偶然に思いついたものであり、海上海中でなくても小規模な発電であれば地上ビル内設置でも浮力の活用に依る回転扇発電は可能な為に本回転扇浮力併用活用発電が大きく前進する事となる。
又海中発電が成功するかどうかは完全な安全性と大量の活用海水に依る厖大な発電量が可能かどうかであり、本二段回転扇設置の発見に依り、最大の懸案事項である安全な大容量発電が近い将来必ず出現する事となる。
While thinking about the discovery of a more powerful and safe rotating fan power generation, I thought of it by chance. Because of this, the power generation using this rotating fan combined with buoyancy will be greatly advanced.
Whether or not subsea power generation is successful depends on whether it is possible to produce a large amount of power generation with complete safety and a large amount of seawater. The discovery of the installation of this two-stage rotating fan is the biggest concern. Large-capacity power generation will surely appear in the near future.

大容量発電の為の二段回転扇の設置方法である「上部貯留水槽」と「中部貯留水槽」部分を継ぐ大切な「海水侵入抑止筒」の設置に於いては上下回転扇のより安定した回転に大きく貢献する事は自明の理であり「回転分銅」「海中空間」双方の安定稼動に依る強力な「第一主力回転ギア」稼動にも大きく貢献する事となる大切な「海水侵入抑止筒」の設置活用となる。  In the installation of an important “seawater intrusion prevention cylinder” that succeeds the “upper water storage tank” and “central storage water tank”, which is the installation method of the two-stage rotating fan for large-capacity power generation, the vertical rotating fan is more stable. It is self-evident to make a major contribution to rotation, and it is an important “suppression of seawater intrusion” that will greatly contribute to the operation of the powerful “first main rotation gear” that depends on the stable operation of both “rotary weight” and “underwater space”. It becomes the installation utilization of "tube".

従来の高温高圧蒸気発電エネルギーの半分近くは大気中に放出がされて地球温暖化に大きく貢献しているが、同時に高温蒸気の瞬発力のみに依る高速回転発電の為に厖大な高熱高温蒸気の常時発生が必要となる。
本二段回転扇発電の狙いは天然資源の水中での空気浮力の活用と海水の循環のみで発電稼動を行なう為に最初の設備は大変であるが、回転稼動が始まれば、海中での「回転扇」の回転力のみで大容量発電の現出となる。
まず蒸気タービンは殆んど横置き設置の為に僅か数百kg〜数千kgの回転軸の高速回転となるが、本海中発電での回転扇自体の高速回転等は全く不必要な為に、必要最小限の回転速度の確保を目指す事となり、その回転扇の重量は数十〜数百tの重量となる。
そしてその狙いは重量物体に依る連続した低速回転稼動力の維持が可能であれば正に蒸気機関車がレール上を段々と加速して行くと、次第にその物体の重量加重の現出となり次第に猛烈な加速速度となる事は自然の道理であり、正に本回転扇も同様な高速回転稼動となり当然双方共大気圧圏内1気圧空間となる事は誰でも理解される事となる。
然らば、この高速回転扇の現出に必要なエネルギーは「高圧海水噴出機」のみであり、且つこの噴出海水は全て水面喫水線下の水中部分よりの吸引噴出の為に、従来の水面上設置等よりの吸引噴出等よりは噴出負荷は全く違った事となり大きく減少する事となる。
そしてこの回転扇周囲に設置された数十基の「高圧海水噴出機」が噴出稼動を行なえば本回転扇が段々と回転稼動を始めそして暫くすると回転分銅、海中空間双方の自然活用を行ない乍ら、高速回転域に達する事となり、この重量感のある回転稼動力の活用に依る「発電船内第一甲板」上の「第一主力回転ギアの回転稼動に依る各連結回転ギアの稼動活用を行なえば必ず厖大な大容量発電が出現する事は充分に理解される事となる。
Nearly half of the conventional high-temperature and high-pressure steam power generation energy is released into the atmosphere and contributes greatly to global warming. At the same time, a large amount of high-temperature high-temperature steam is generated for high-speed rotation power generation that depends only on the instantaneous power of high-temperature steam. It is necessary to always occur.
The aim of this two-stage rotating fan power generation is to use the air buoyancy of natural resources underwater and the power generation operation only by the circulation of seawater, but the first equipment is difficult, but once the rotation operation starts, Large-capacity power generation appears only with the rotational force of the rotary fan.
First of all, the steam turbine is almost horizontally installed, so it rotates at a high speed of only a few hundred kg to several thousand kg. However, the high-speed rotation of the rotating fan itself in this subsea power generation is completely unnecessary. Therefore, it is aimed to secure the necessary minimum rotation speed, and the weight of the rotating fan is several tens to several hundreds of t.
And if the aim is to maintain a continuous low-speed rotational operating force depending on the heavy object, if the steam locomotive accelerates on the rail step by step, the weight weighting of that object will gradually appear and it will become increasingly fierce It is natural reason to achieve a high acceleration speed, and anyone can understand that this rotary fan will also operate at the same high speed and naturally both will be in the atmospheric pressure range.
Therefore, the only energy required for the appearance of this high-speed rotating fan is the “high-pressure seawater ejector”, and all of this seawater is aspirated and ejected from the underwater part below the water surface draft line. The ejection load is completely different from the suction ejection from the installation, etc., and it is greatly reduced.
And if dozens of "high-pressure seawater jets" installed around the rotary fan perform the jetting operation, this rotary fan will start to rotate gradually, and after a while, the natural use of both the rotary weight and the underwater space will be carried out. Therefore, the high speed rotation range will be reached, and the operational utilization of each connected rotation gear by the rotation operation of the first main rotation gear on the first deck on the power generation ship will depend on the use of this heavy rotation operation force. If you do it, it will be fully understood that enormous large-capacity power generation will appear.

海上海中船周囲部分に「浮力創出海中空間設置外周槽」を設置し、本外周槽は完全な海底固定が行なわれる事に依り、正に海上海中部分に巨大な海中プールの出現となり、この海中巨大プール内に「上部貯留水槽」と「中部貯留水槽」の二段水槽の設置が行なわれ、この各上下水槽を繋ぐ為に「海水侵入抑止筒」を設置し、上下各々貯留水槽内に於いては本「海水侵入抑止筒」の活用に依り常時「大気圧圏内1気圧」の空間保持となる。又、上部中部各々貯留水槽内の海水量は各階設置の「外海海水侵入排水調整装置」に依り調整される事とする。そして各種厳しい外海気象現象にも確実な対応を行なう為に「中部回転扇安定稼動回転渦流調整室」を設置をし、短時間での空気容量、海水の各々吸引排出調整が行なえる事とし、短時間での外海自然環境の気圧、潮海流等の急激な変化にも充分に対応可能とする事とする。A buoyancy-creating underwater space installation outer peripheral tank is installed around the sea Shanghai middle ship, and this outer peripheral tank is completely fixed at the bottom of the sea, so a huge underwater pool appears in the middle part of the sea Shanghai, In this huge underwater pool, a two-stage tank of “upper storage tank” and “central storage tank” is installed, and a “seawater intrusion deterrent cylinder” is installed to connect each of the upper and lower water tanks. In this case, the space maintenance of “atmospheric pressure range 1 atm” is always maintained by utilizing this “seawater intrusion prevention cylinder”. In addition, the amount of seawater in each of the upper and middle reservoirs will be adjusted by the “seawater seawater intrusion / drainage adjustment device” installed on each floor. And in order to reliably respond to various harsh open sea weather phenomena, we set up the “Central rotating fan stable operation rotating eddy current adjustment chamber”, and we can adjust the air volume and seawater suction and discharge in a short time, Sufficient response to sudden changes in atmospheric pressure, tidal currents, etc. in the open sea natural environment in a short period of time will be possible.

〔図1〕安定した二段階設置回転扇の上下設置に必要な「海中浮力強化空間」の設置活用と「海水侵入抑止筒」双方の発見設置に依り、双方の「第一上部回転扇」「第二下部回転扇」の強力な発電回転稼動力の現出となり、より安定稼動の実現の為に「接続回転軸緩衝装置」の設置活用に依る上下各々回転扇の回転稼動安定の現出と「上部貯留水槽」「中部貯留水槽」双方の常時安定した各々貯留水槽内喫水線の確保が「外海海水侵入排水調整装置」「中部回転扇安定稼動回転渦流調整室」各々装置設備の設置活用に依り強力な低気圧発生時、潮流変化時等々の諸々の異状事能発生時にも瞬時の海水の注入排出、空気圧の調整等が行なわれ、四六時中安定した発電稼動が行なわれる事となる。
そして大切な発見となる「第一上部回転扇」「第二下部回転扇」双方に於いては水深のある海中に於いても当然大気圧圏内1気圧内での自然の摂理である双方の強力な浮力活用に依る重量物回転慣性力の持続確保に依る軽快な高速回転稼動となり想像を超えた厖大な大容量海中発電が出現する事となる。
将来は「海水侵入抑止筒」の改良活用に依る三層の貯留水槽の設置活用を行なえばより厖大な発電容量の出現となり、いよいよ回転扇発電の活用がいかに大切であるかを実感する事となる。
[Fig.1] Both “First Upper Rotating Fan” and “First Upper Rotating Fan” and “Surface of the Seawater Intrusion Prevention Cylinder” are found and utilized by the installation and utilization of the “underwater buoyancy-enhancing space” necessary for the vertical installation of the two-stage rotating fans. In order to realize a more stable operation, the second lower rotary fan will be able to produce a stable power operation. Securing a stable waterline in each reservoir for both the upper and middle reservoirs depends on the installation and use of the equipment in each of the "outside seawater intrusion drainage adjustment device" and "central rotating fan stable operation rotating eddy current adjustment chamber" Even when various abnormal events occur, such as when a strong low pressure occurs or when a tidal current changes, instantaneous seawater injection and discharge, adjustment of air pressure, etc. are performed, and stable power generation operation is performed all the time.
And in both the “first upper rotating fan” and “second lower rotating fan” which are important discoveries, both the strong powers of natural providence within 1 atmosphere of atmospheric pressure even in the deep sea. As a result, it is possible to operate lightly at a high speed by relying on the continuity of heavy inertia of heavy loads by using buoyancy.
In the future, the installation and utilization of three-layer storage tanks by improving and utilizing the “seawater intrusion deterrent cylinder” will lead to the emergence of a larger generation capacity, and it will finally be realized how important the use of rotating fan power generation is. Become.

Claims (1)

海中に設置された海中発電船内の水槽内に二段階の水槽を設置し、その各水槽内には各々回転扇を設置し、その間中部分に「海水侵入抑止筒」の活用設置に依り、この二段水槽は完全に分割設置の現出となる。
この上下各水槽内に〔図1〕の通り各々回転扇を設置をし、下方設置「第二下部回転扇」部分には「回転分銅」の設置と「海中空間」双方を設置し、より強力な回転稼動力の出現を目指す事に依り、「発電船内第1甲板」上に設置された「第1主力回転ギア」の回転発電が行なわれる事となる。
又、その回転継続源動力となる各十数箇所設置の噴出「高圧海水噴出機」の噴出海水の吸入口設置場所は各々喫水線上より下方水中部分からの吸引噴出稼動とする為に想像を超えた大幅に軽快で強烈な高圧水の噴出稼動となり、当然この吸引噴出が繰り返される事となりその排水は各水槽内を循環するだけとなり、継続された安定した発電稼動が出現する事となる。
そして「中部回転扇安定稼動回転渦流調整室」の設置に依り、短時間での大量の噴出安定空気、噴出海水又吸排海水等が行なわれる事に依り、大幅な「中部貯留水槽」の安定と同時に「上部貯留水槽」を含む海中貯留水槽全体の安定した低気圧対策、潮海流大波対策等々が常時万全な態勢が海中に出現する「二段階回転扇海中設置活用に依る大容量回転扇発電構想」
A two-stage aquarium is installed in the aquarium of the submarine power generation ship installed in the sea, and a rotating fan is installed in each of the aquariums. The two-stage tank will be completely divided.
A rotating fan is installed in each of the upper and lower water tanks as shown in [Fig. 1], and both the "rotating weight" and "underwater space" are installed in the lower "second lower rotating fan" part, making it more powerful. As a result of aiming for the emergence of a new rotational operating force, the “first main rotating gear” installed on the “first deck in the power generation ship” is rotated.
In addition, the location of the inlet of the seawater inlet of the `` high-pressure seawater jet machine '' installed at more than a dozen locations that serve as the rotation continuation source power is beyond imagination in order to operate the suction jet from the underwater part below the waterline. As a result, the suction operation is repeated, and the drainage only circulates in each water tank, and a continuous and stable power generation operation appears.
And by setting up the “Central rotating fan stable operation rotating eddy current adjustment chamber”, a large amount of stable air, discharged seawater, intake / exhaust seawater, etc. in a short period of time can be used. At the same time, stable measures for low pressure of the entire subsea storage tank including the “upper storage tank”, countermeasures against tidal currents, etc. always appear in the sea. "
JP2014090660A 2014-03-18 2014-03-18 Concept of high-capacity rotary blade power generation by double-stage rotary blade under-water installation and its application Pending JP2015178828A (en)

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